APPLICATIONS

WINDOW TINTING FILM

Blocking heat and radiation

PRODUCTS

SOLAR PRODUCT

OUR PRODUCTS

OUR PRODUCTS

Explore our meticulously designed golf course, featuring stunning fairways,

Anti-Sun films are among the most effective solutions for protecting against radiation, glare, and heat buildup in offices and buildings

Black-Silver Film

Reflective on the outside, with ablue-grey tint.

Catalogue and Spec

Photochromic Film

Darkens when exposed to light, offering full UV and IR radiation blocking.

Catalogue and Spec

Photochromic Film

Darkens when exposed to light, offering full UV and IR radiation blocking.

Catalogue and Spec

Magnetron 75

A clear film providing full protection against UV and IR radiation.

Catalogue and Spec

Magnetron 75

A clear film providing full protection against UV and IR radiation.

Catalogue and Spec

TECHNOLOGY

TECHNOLOGY

Films to block Radiation and heat

Films to block Radiation and heat

Films designed to block radiation and heat from the sun, often referred to as "Anti-Sun," have been available since the early 1970s.

This field has seen continuous technological advancements, with ongoing improvements in the quality of the films to enhance heat and glare rejection while ensuring greater durability over time.

Anti-Sun films are among the most effective solutions for protecting against radiation, glare, and heat buildup in offices and buildings. Window shading is achieved using a special material that blocks over 99% of incoming radiation.

Anti-Sun films are highly popular in stores, public buildings, shopping malls, and even private homes.

TECHNOLOGY

TECHNOLOGY

Sources of Heat and Radiation

Sources of Heat and Radiation

Heat comes from three primary sources:


- UV (Ultraviolet): 10%

- Visible Light: 45%

- IR (Infrared): 45%

Blocking heat and radiation eliminates the need for curtains or blinds, allowing work on computers without glare or brightness issues (even on the non-sun side).

TECHNOLOGY

TECHNOLOGY

The Evolution Of Window Film Technology

The Evolution Of Window Film Technology

TECHNOLOGY The evolution of window film technology The evolution of window film technology has progressed significantly since its beginnings in the 1930s. Initially developed as "Tea Paper" with basic light insulation, window films have undergone six major technological generations, enhancing their functionality and performance. Here's a summary:





1. First Generation: Tea Paper

- Basic hiding function with minimal thermal and UV insulation.

- Low durability (fades in one year) and contains hazardous adhesives like formaldehyde and benzene.


2. Second Generation: Dyeing Film

- Dye applied directly to the adhesive layer, offering limited thermal and UV insulation.

- Moderate lifespan (two years) but low definition and hazardous adhesives persist.


3. Third Generation: Vacuum Aluminium Plating Film

- Utilises vacuum thermal evaporation to coat aluminium on the film base.

- Offers moderate thermal insulation, higher durability (five years), and improved definition.


4. Fourth Generation: Nano Ceramic Film

- Employs coating or magnetron sputtering to evenly distribute nano ceramic particles.

- Absorbs heat effectively, offers over seven years of durability, and does not interfere with wireless signals.


5. Fifth Generation: Magnetron Sputtering Metal Film

- Uses electromagnetic induction to apply precious metals (gold, silver, titanium, nickel).

- Provides better definition, higher thermal insulation, and lasting durability (over seven years).


6. Sixth Generation: Multi-Layer Magnetron Sputtering Metal Film

- Sprays multiple layers of precious metal alloys using electromagnetic induction.

- Represents the pinnacle of window film technology with high definition, superior thermal insulation, low light reflection, scratch resistance, and anti-burst properties.


Each generation builds on advancements in material and manufacturing techniques, culminating in modern, high-performance films with a wide range of applications.

TECHNOLOGY

TECHNOLOGY

Solar Parameters

Solar Parameters

TSER (Total Solar Energy Reflectance) is a measure of the reflectivity of a surface for solar radiation, and it is often expressed as the sum of the reflectance across different spectral bands. The formula to compute TSER from the reflectance values in different spectral bands (VLT, IR, and UV) typically involves taking the weighted sum of reflectance across those bands, with the weights representing the relative contribution of each spectral range to the total solar radiation.


If we define:


Visible light (VLT):

The visible light part of the spectrum generally covers the range from about 400 nm to 700 nm.


UV (Ultraviolet):

The UV spectrum typically includes wavelengths from about 100 nm to 400 nm.


IR (Infrared):

The infrared spectrum is generally considered to cover wavelengths from 700 nm to 2500 nm. Then the formula for computing


TSER is generally:

TSER= 43% x VLT + 52% x (1 - IR rejection) + 5% x (1 - UV rejection) A higher TSER (Total Solar Energy Rejected) means the window film or glazing is better at rejecting solar energy TSER and SHGC


Relationship:

TSER and SHGC measure related but opposite effects: TSER represents the percentage of solar energy rejected, while SHGC indicates the fraction of solar heat allowed inside; together, they sum to 100%.


Thus:

TSER = (1 - SHGC) * 100% In practical applications, the exact values for α depend on the specific material, and the SHGC will often be calculated taking into account both transmitted and reflected radiation, as well as other thermal properties.

TSER (Total Solar Energy Reflectance) is a measure of the reflectivity of a surface for solar radiation, and it is often expressed as the sum of the reflectance across different spectral bands. The formula to compute TSER from the reflectance values in different spectral bands (VLT, IR, and UV) typically involves taking the weighted sum of reflectance across those bands, with the weights representing the relative contribution of each spectral range to the total solar radiation.


If we define:


Visible light (VLT):

visible light part of the spectrum generally covers the range from about 400 nm to 700 nm.


UV (Ultraviolet):

The UV spectrum typically includes wavelengths from about 100 nm to 400 nm.


IR (Infrared):

The infrared spectrum is generally considered to cover wavelengths from 700 nm to 2500 nm. Then the formula for computing


TSER is generally:

SER= 43% x VLT + 52% x (1 - IR rejection) + 5% x (1 - UV rejection) A higher TSER (Total Solar Energy Rejected) means the window film or glazing is better at rejecting solar energy TSER and SHGC


Relationship:

TSER and SHGC measure related but opposite effects: TSER represents the percentage of solar energy rejected, while SHGC indicates the fraction of solar heat allowed inside; together, they sum to 100%.


Thus:

TSER = (1 - SHGC) * 100% In practical applications, the exact values for α depend on the specific material, and the SHGC will often be calculated taking into account both transmitted and reflected radiation, as well as other thermal properties.

FAQ

FAQ

FREQUENTLY ASKED
QUESTIONS

FREQUENTLY ASKED
QUESTIONS

What is the most important parameter to measure heat?

What is exactly VLT?

What is the Ultraviolet (UV) range?

What is the Infrared (IR) range?

Why do some films have metal, and what is its role?

Do metal-based films affect radio reception?

Are window tinting films considered a "green" material?

How long do window tinting film remain effective?

What is the time life of the photochromic effect in a photochromic film?

Do window tinting films protect against UV radiation?

What is the main difference between anti-sun films applied outside versus inside the facade?

What is a low-E layer? Is it like an anti-sun film?

How are solar films installed?

Do solar films affect window strength?

What maintenance do solar films require?

Is a solar film expensive?

Can solar films provide privacy?

Can solar films be removed?

How do I choose the right solar film?

Are there different types of solar films?

What is magnetron technology?

Is it normal for glass to be very hot after film installation?