Discuss my project

Less heat. More possibilities.

SUNLIGHT IS REFLECTED0.3–2.5 µm
HEAT IS EMITTEDTowards the sky · 8–13 µm
+ FILM ON THE ROOF
FILMS · COATINGS · TEXTILES

Cooling.Without power.

Films and coatings applied to your surfaces to reduce solar heat gain and limit air-conditioning needs.

0 kWh

Active energy used
for radiative cooling

8–13 µm

The atmospheric window
for releasing heat

SEE THE PRODUCT↓
CONCEPTUAL VISUALISATION · NOT TO SCALE
ONE TECHNOLOGY. PRACTICAL POSSIBILITIES.

Industry + Infrastructure + Buildings + Equipment + Textiles

THE PRODUCT, EXPLAINED

A film on the surface. An effect on heat.

Start with one example: Polar 90 film. Three steps to understand what is applied and how it works.

SOLCOLD / POLAR 90Self-adhesive film
2 1
1 Metal substrate2 White film
Reflected sunlight Emitted heat

Concept diagram · thickness exaggerated for clarity

A thin material. An active surface.

Polar 90 is a white self-adhesive film supplied in rolls. It covers large exposed surfaces: roofs, cladding, tanks or silos.

220–240 µmPolar 90 film thickness

A different substrate? Cooleco also offers window films, coatings and textiles.

Find the right productPolar 90 specifications

Polar 90: reflectance and emittance measured by LNE, August 2026; surface temperatures calculated using TESA SE data. Performance depends on operating conditions; detailed results and conditions are provided in the product specifications.

00 — Context

Heat is becoming an operational constraint

+1.55 °Cglobal mean temperature anomaly in 2024 vs 1850–1900
10 years2015–2024, the ten warmest years on record
20 %of electricity used in buildings already goes to air conditioners and fans
×3potential global cooling demand by 2050 without efficiency measures

What it means for businesses

  • Maintain business continuity during hot weather.
  • Protect staff, stocks and sensitive equipment.
  • Reduce peak power demand and air-conditioning bills.
  • Adapt existing buildings with minimal intervention.

Two complementary approaches

1 · Reduce heat gain — treat the envelope before heat enters the building.

2 · Optimise equipment — sizing, control and efficiency of cooling systems.

Peak cooling demand coincides with the hours when the electricity grid is under the greatest pressure.

Context figures published by Cooleco and included in the September 2026 catalogue.

01 / THE PRINCIPLE

Two physical processes. One cooler surface.

The material reflects some sunlight and emits heat towards the sky. This is passive radiative cooling, requiring no active energy input for the process.

THE SKY AS A HEAT EXCHANGER
SPACEATMOSPHERE
0.3–2.5 µmSOLAR RADIATION

Conceptual visualisation, not to scale. Results depend on the substrate, climate and application conditions.

01

Reflect sunlight.

Before cooling, limit heat gain. High solar reflectance reduces the energy absorbed by the surface.

02

Emit heat.

Every warm surface emits energy as infrared radiation. The material promotes this thermal emission.

03

Open a window
to space.

Within the 8–13 µm atmospheric window, some radiation escapes into space, carrying heat away.

04

Cool, naturally.

Reflection and emission reduce the thermal load. Polar 90 example: 45.8 → 39.5 °C compared with white-painted sheet metal. ASTM E1980 calculation: air 36.9 °C, sky 26.9 °C, solar irradiance 1,000 W/m², convection 12 W/m²K, TESA SE data.

Understanding the process and performance limitations
01 — Understanding

What is radiative cooling?

Passive radiative cooling uses a natural phenomenon: every warm surface emits energy as infrared radiation. When this radiation escapes into space through the 8–13 µm atmospheric window, the surface releases some of its heat. Cooleco solutions combine high solar reflectance with high infrared emittance to limit heat gain and reduce the thermal load of buildings.

Radiative cooling diagram: solar radiation, the 8–13 µm atmospheric window, thermal radiation towards space
Solar radiation 0.3–2.5 µm · Atmospheric window 8–13 µm · Thermal radiation towards space.

1 · Reflect

solar radiation to limit surface heat gain.

2 · Emit

high levels of infrared radiation within the 8–13 µm atmospheric window.

3 · Release

some heat into space, without any active energy input.

* Performance varies with climate, geometry, orientation, substrate, insulation level and building use. Unless explicitly stated otherwise, the figures in this catalogue come from tests and reference cases supplied by manufacturers and must be confirmed by a project-specific study. The radiative properties of SolCold products are an exception: they have been measured by a third-party laboratory.

02 / THE SOLUTIONS

Which product for your surface?

Metal roofs, glazing and textiles need different solutions. Identify your application, then open the specifications for the matching product.

Select a family to explore the material, its applications and its price.

Reflective filmsFR1S300 / FR5S300 / FR5B100
Roofs & cladding

FR Series

A reflective film for opaque surfaces.

Reflective films for metal roofs, cladding, tanks, technical cabinets, boarding bridges, railway carriages and outdoor equipment.

90 %of solar radiation reflected · FR5B100
View FR Series specificationsFrom €35.80/m² excl. VAT · installation excluded

A catalogue of physical solutions, from films to textiles.

All products and prices
Solution families and their applications

Passive radiative cooling solutions for buildings, industry, glazing, equipment and technical textiles. Films, coatings, fabrics and high-performance SolCold films.

02 — Our range

One principle, a solution for each substrate

Act directly on heat-exposed surfaces with a solution suited to the substrate: roofs, cladding, glazing, façades, tanks, equipment and textiles.

Cooleco FR Series reflective film in a roll

Reflective films

For metal roofs, cladding, tanks, technical cabinets, boarding bridges, railway carriages and outdoor equipment.

FR1S300FR5S300FR5B100
Cooleco T Series transparent window film

Transparent films

For glazed roofs, curtain walls and highly exposed windows. Reduced solar heat gain with controlled light transmission.

T36300WT44300NT13300WT67300W
Structure of a Cooleco cooling textile

Cooling textiles

For blinds, shading, covers, tents, parasols and outdoor applications.

TP500TP400HC1-3HC1-5
Cooleco radiative coatings applied to tanks and silos

Radiative coatings

Multilayer systems for metal substrates and architectural façades. Surface protection and thermal management.

P3111-13W3111-14

SolCold films Measured by LNE & TESA SE

High-performance self-adhesive films Polar 90 and Glacier 110, distributed in France by Cooleco. The only products in the catalogue whose radiative properties have been measured by two independent third-party laboratories.

Polar 90Glacier 110LNE (August 2026) & TESA SE measurements
03 / REFLECTIVE FILMS

Less heat on the roof. Less cooling load.

FR Series reflects sunlight before the building envelope heats up and promotes heat release through infrared radiation. A passive way to limit cooling demand.

90 %Solar radiation reflected / FR5B100
0.93Thermal emittance / FR5B100
≥ 137W/m² / manufacturer-stated cooling power

FR5B100 specifications: supplier data, not verified by a third-party laboratory.

Cooleco FR Series

Metal roofs and cladding, electrical and telecom cabinets, tanks, silos, airport boarding bridges.

35.80 €/m² excl. VATSupply only · transport and installation excluded

FR Series specifications
Product codeSize / colourReflectanceEmittanceCooling powerPrice
Cooleco FR1S3001.225 × 50 m — matt silver89 %0.93≥ 140 W/m²€35.80/m²
Cooleco FR5S3001.206 × 25 m — matt silver89 %0.93≥ 140 W/m²€35.80/m²
Cooleco FR5B1001.206 × 25 m — white90 %0.93≥ 137 W/m²€35.80/m²

Minimum: 30 rolls per model. Indicative installation: +€12/m², depending on the project.

FR Series applications, tests and conditions
Reflective films

Cooleco FR Series

Films designed for exposed opaque surfaces: roofs, cladding, equipment, tanks and metal structures. Their purpose is to significantly limit solar absorption and release heat through infrared radiation.

Product codeSize / colourReflectanceEmittanceCooling powerPrice
Cooleco FR1S3001.225 × 50 m — matt silver89 %0.93≥ 140 W/m²€35.80/m²
Cooleco FR5S3001.206 × 25 m — matt silver89 %0.93≥ 140 W/m²€35.80/m²
Cooleco FR5B1001.206 × 25 m — white90 %0.93≥ 137 W/m²€35.80/m²
Supplier data — not verified by a third-party laboratory

Preferred applications

  • Metal roofs and cladding.
  • Electrical and telecom cabinets.
  • Tanks, silos and storage.
  • Airport boarding bridges and exposed structures.

What the tests show

In various field cases, the films produced surface temperature differences exceeding 20 °C and reduced indoor temperatures and air-conditioner running time.

Minimum order: 30 rolls per model. Prices exclude VAT, transport and installation. Indicative installation charge: +€12/m², depending on site conditions.

Need a quote for a roof or cladding?

Surface area, substrate, location and consumption: we estimate the potential reduction in thermal load.

Request a study
3D EXPERIENCE / BEFORE & AFTER

One roof. Two temperatures.

Move the divider to compare a sun-exposed galvanised steel roof with the same surface covered in film.

BEFORE / GALVANISED STEEL60°CSurface temperature
AFTER / WITH FILM23°CSurface temperature
ILLUSTRATIVE SCENARIO
−37 °C illustrated difference
Illustrative scenario: 60 °C before and 23 °C after. These values were supplied for this demonstration and do not come from a documented test. Actual temperatures and compatibility of the film with the galvanised steel substrate must be confirmed for each project.
04 / TRANSPARENT FILMS

Keep the light. Control solar heat.

Manage solar gain through your glazing. T Series lets you choose light transmission suited to your application, depending on the glazing and installation conditions.

83.3 %Solar energy rejected · T13300W
≥ 99 %UV rejection · T Series

TSER = total solar energy rejected.
Supplier data not verified by a third-party laboratory.

TRANSMISSION / REFLECTION · CONCEPT DIAGRAM
T Series film specifications
Product codeAppearance / installationVisible light transmissionTSERUV rejectionPrice
Cooleco T36300WGrey — exterior36.6 %56.4 %≥ 99 %€29.80/m²
Cooleco T44300NGrey — interior42.3 %60.5 %≥ 99 %€29.80/m²
Cooleco T13300WSilver — exterior11.7 %83.3 %≥ 99 %€38.74/m²
Cooleco T67300WGrey — depending on model—62.0 %≥ 99 %€29.80/m²
The right specification starts with the glazing.

T13300W is a silver mirror film with low light transmission, incompatible with Low-E coated glazing. Check the glazing type and whether installation is internal or external.

T Series specifications, compatibility and selection
Transparent films

Cooleco T Series

Films for windows and glazed roofs, designed to reject a significant proportion of solar energy while maintaining light transmission suited to the project.

Product codeAppearance / installationVisible light transmissionTSERUV rejectionPrice
Cooleco T36300WGrey — exterior36.6 %56.4 %≥ 99 %€29.80/m²
Cooleco T44300NGrey — interior42.3 %60.5 %≥ 99 %€29.80/m²
Cooleco T13300WSilver — exterior11.7 %83.3 %≥ 99 %€38.74/m²
Cooleco T67300WGrey — depending on model—62.0 %≥ 99 %€29.80/m²
Supplier data — not verified by a third-party laboratory · TSER = total solar energy rejected
High-performance T13300W: suited to highly exposed glazed roofs and south-facing façades. Silver mirror finish, low light transmission. Not compatible with Low-E coated glazing.

Planning a window or glazed-roof project?

Film selection depends on the glazing, required light transmission and internal or external installation.

Contact us
MULTILAYER SYSTEM · ILLUSTRATION
05 / RADIATIVE COATINGS

Protect the substrate. Reduce heat gain.

Corrosion protection, façade protection and thermal management. A material that adapts to the shape of the substrate.

METAL / P3111–13

88 % reflectance

Primer, intermediate coat, topcoat.
Stainless steel, steel, coated steel, galvanised sheet metal.

€31.60/m² excl. VAT
FAÇADE / W3111–14

90 % reflectance

Protection against water vapour, CO₂, acids and alkalis.

€13.50/m² excl. VAT

Price for the complete system, excluding installation. Supplier data.

Complete systems, properties and documented effects
Coatings

Cooleco Coatings: radiative cooling + surface protection

Metal coating — white

For stainless steel, steel, coated steel and galvanised sheet metal. A three-coat corrosion-protection system: primer, intermediate coat and topcoat.

Solar reflectance
88 %
Emittance
0.90
System
P3111 + P3112 + P3113
Complete system price
€31.60/m²

Architectural coating — white

For façades. Protection against water vapour, CO₂, acids and alkalis. Apply by roller, spray gun or brush.

Solar reflectance
90 %
Emittance
0.88
System
W3111 → W3114
Complete system price
€13.50/m²
Supplier data — not verified by a third-party laboratory
Radiative coating applied to storage tanks Radiative coating applied to a roof and tanks
Documented effects: reference architectural coatings are reported to reduce surface temperatures by around 10 to 15 °C, reduce heat gain, and provide waterproofing / mould resistance depending on the system.
06 / COOLING TEXTILES

Solar protection. Woven into the textile.

Textile substrate, primer, radiative topcoat, protective varnish: four layers for flexible, lightweight, passive protection.

Blinds, covers, tents, parasols and shading. Reduce solar absorption right where it is needed.

85 %Solar reflectance · TP500
>99 %UV protection
01Protective varnish02Radiative topcoat03Primer04Textile substrate
TYPICAL STRUCTURE · EXPLODED VIEW
Textile specifications
Product codeType / sizeReflectanceUV protectionHydrostatic headPrice
Cooleco TP500150D Oxford — 1.5 × 70 m85 %>99 %5000 mm€13.35/m
Cooleco TP40030D mesh — 1.4 × 50 m82 %>99 %6000 mm€12.60/m
Cooleco HC1-3200D Oxford — ivory/black74 %>99 %6000 mm€9.32/m
Cooleco HC1-5600D Oxford — khaki/white80 %>99 %6000 mm€12.60/m

Other products: HC1-1 €5.54/m · HC1-2 €6.30/m · HC1-4 €11.08/m · Cooleco 30D €11.08/m · Cooleco 50D €11.84/m. Minimum: 1,500 m per product. Prices exclude VAT, transport, insurance and installation.

Material structure, sizes and all product codes
Cooling textiles

Cooleco Textile Series

Technical fabrics combining textile substrate, primer, radiative topcoat and varnish for shading, covers, blinds and outdoor applications.

Typical structure of a Cooleco cooling textile
Typical structure — protective varnish, radiative topcoat, primer, textile substrate.
Solar-protection car cover
Example application: solar-protection car cover.
Product codeType / sizeReflectanceUV protectionHydrostatic headPrice
Cooleco TP500150D Oxford — 1.5 × 70 m85 %>99 %5000 mm€13.35/m
Cooleco TP40030D mesh — 1.4 × 50 m82 %>99 %6000 mm€12.60/m
Cooleco HC1-3200D Oxford — ivory/black74 %>99 %6000 mm€9.32/m
Cooleco HC1-5600D Oxford — khaki/white80 %>99 %6000 mm€12.60/m

Uses

Blinds, sunshades, tents, parasols, vehicle covers, equipment protection and shade fabrics.

Benefits

Reduce solar absorption right where it is needed, while retaining a lightweight, flexible material that is easy to deploy.

Other products: HC1-1 €5.54/m · HC1-2 €6.30/m · HC1-4 €11.08/m · Cooleco 30D €11.08/m · Cooleco 50D €11.84/m. Minimum order: 1,500 m per product.
Outdoor applications: blinds, covers, tents and shading
Outdoor applications & comfort

Blinds, covers, tents and shading: reducing heat gain at the point of use

Comparison of solar-protection car covers
Examples of car covers and outdoor protection.
Parasol and textile shading structures
Shading applications and textile structures.

Portable solar protection

For vehicles, equipment, tents and temporary areas, reflective textiles can limit temperature increases without electrical power.

Occupant comfort

Exterior blinds, interior blinds, curtains and shade fabrics reduce the radiation received by occupants and indoor surfaces, directly improving perceived comfort.

07 / SOLCOLD — HIGH-PERFORMANCE FILMS RADIATIVE MEASUREMENTS / LNE & TESA SE
LARGE SURFACES. HIGH PRECISION.

Polar 90.

Reduce heat gain
on large surfaces.

A white self-adhesive film for roofs, cladding, tanks, silos and industrial equipment. Radiative properties published from measurements by LNE (August 2026) and TESA SE, Hamburg.
Plan your project
220–240 µmFILM THICKNESS
87.7 %Solar reflectance · LNE
0.855Emittance at 25 °C · LNE
110.5SRI LNE · 114 TESA
50–90W/m² · manufacturer-stated cooling power

Reflectance and emittance: LNE, August 2026. SRI according to ASTM E1980, convection 12 W/m²K. LNE uncertainties: ±0.020 (reflectance) and ±0.042 (emittance), k=2. Cooling power: manufacturer data, not covered by these measurements.

−6.3 °C calculated surface temperature difference compared with white-painted sheet metal.

877 W/m² reflected out of 1,000 W/m² incident radiation.

€45.00/m² excl. VAT Supply only, transport and installation excluded.

TWO LABORATORIES / COMPARABLE RESULTS

Measured properties.
Calculated temperatures.

LNE provides the reflectance and emittance values published in August 2026. SRI values are established according to ASTM E1980; TESA SE also provides calculated surface temperatures. Values are presented for a convection coefficient of 12 W/m²K.

The data below are those published on cooleco.fr. LNE and TESA SE reports are available on request.

Request laboratory reports
Polar 90 specifications — full properties, conditions and sources
SolCold — high-performance films

SolCold Polar 90: self-adhesive film for large exposed surfaces

White self-adhesive film for roofs, cladding, tanks, silos and exposed industrial equipment. The radiative properties below were measured by two independent third-party laboratories : LNE (reflectance, emittance, SRI — August 2026) and TESA SE Hamburg (reflectance, emittance, SRI and calculated surface temperatures), rather than declared by the manufacturer.

Calculated surface temperature (TESA SE)

Solar irradiance 1,000 W/m², air 36.9 °C, sky 26.9 °C, convection 12 W/m²K.

White-painted sheet metal45.8 °C
ASTM E1980 reference white44.6 °C
Polar 9039.5 °C
Glacier 11036.7 °C

Under these conditions, Polar 90 remains 2.6 K above air temperature while reducing the surface temperature by 6.3 °C compared with white-painted sheet metal.

Key points Measured by LNE & TESA

87.7 %solar reflectance (LNE)
0.855emittance at 25 °C (LNE)
110.5SRI LNE (convection 12 W/m²K)
114TESA SRI (same conditions)

Reflectance, emittance and SRI: LNE report, August 2026 (stated uncertainties ±0.020 for reflectance, ±0.042 for emittance, k=2). Surface temperatures and second SRI calculation: TESA SE report. Cooling power (50–90 W/m²) remains manufacturer data, not covered by these measurements.

Type
White self-adhesive film
Format
52 cm × 100 m
Thickness
220–240 µm
Mass per unit area
0.21–0.22 kg/m²
Service temperature
−80 to +150 °C
Substrates
Metal, steel, aluminium, concrete, PVC
Application
10 to 35 °C, dry substrate
Maintenance
None; clean with water if needed
UV / water resistance
ISO 16474-3: 5+ years
Fire performance
UL 94 / ASTM D3801 : UL V-1
Service life
Up to 10 years
Price
€45.00/m²
110.5 / 114LNE / TESA SRI (convection 12 W/m²K), compared with 100 for reference white
−6.3 °Ccalculated surface temperature vs white-painted sheet metal
877 W/m²solar energy reflected out of 1,000 W/m² incident radiation (LNE reflectance 87.7%)
0film energy consumption

Polar 90: planning large surfaces

Send your plans or surface areas for an estimate of quantities, budget and potential savings.

Request an estimate

Reflectance, emittance and SRI: LNE report, August 2026. Calculated surface temperatures and second SRI: TESA SE report. Other properties: SolCold Polar 90 technical data sheet.

08 / SOLCOLD — ADVANCED PERFORMANCEAIR 36.9 °C / SURFACE 36.7 °C*
THE PREMIUM REFERENCE

Glacier 110.

Below air temperature.

Under TESA SE calculation conditions (air 36.9 °C, sky 26.9 °C, solar irradiance 1,000 W/m², convection 12 W/m²K), its surface reaches 36.7 °C: 0.2 °C below air temperature.

89.5 %Solar reflectance · LNE
112.8SRI LNE · 121 TESA
36.7°C* CALCULATED SURFACE TEMPERATURE

Compare surfaces.
Under identical conditions.

CALCULATED SURFACE TEMPERATURE
White-painted sheet metal
45.8 °C
ASTM E1980 reference white
44.6 °C
Polar 90
39.5 °C
Glacier 110
36.7 °C
303540455055 °C

Air: 36.9 °C · Sky: 26.9 °C · Solar irradiance: 1,000 W/m² · Convection: 12 W/m²K.
ASTM E1980 method using TESA SE radiative properties. Polar 90 remains +2.6 K above air temperature; Glacier 110 is at −0.2 K.

EVERY DEGREE COUNTS

For substrates
with low thermal mass.

Transport, electronics enclosures, containers, silos, buildings, aerospace applications and technical textiles.

Emittance at 25 °C · LNE0.834

Manufacturer-stated cooling power70–170 W/m²

Supply price€80.00/m² excl. VAT

Request a sample

LNE, August 2026: uncertainties ±0.020 for reflectance and ±0.044 for emittance (k=2). SRI: convection 12 W/m²K. Cooling power: manufacturer data.

Glacier 110 specifications — performance, sizes and conditions
SolCold — high-performance films

SolCold Glacier 110: cooling below air temperature

The premium product in the SolCold range. Under the calculation conditions selected by TESA SE (air 36.9 °C, sky 26.9 °C, solar irradiance 1,000 W/m², convection 12 W/m²K), Glacier 110 is the only material in the test whose calculated surface temperature falls below ambient air temperature.

Calculated surface temperature (TESA SE)

Solar irradiance 1,000 W/m², air 36.9 °C, sky 26.9 °C, convection 12 W/m²K.

White-painted sheet metal45.8 °C
ASTM E1980 reference white44.6 °C
Polar 9039.5 °C
Glacier 11036.7 °C

Calculated difference relative to ambient air: −0.2 K (36.7 °C vs 36.9 °C air temperature).

Key points Measured by LNE & TESA

89.5 %solar reflectance (LNE)
0.834emittance at 25 °C (LNE)
112.8SRI LNE (convection 12 W/m²K)
121TESA SRI (same conditions)

Reflectance, emittance and SRI: LNE report, August 2026 (stated uncertainties ±0.020 for reflectance, ±0.044 for emittance, k=2). Surface temperature and second SRI: TESA SE report. Cooling power (70–170 W/m²) remains manufacturer data, not covered by these measurements.

Type
White self-adhesive film
Format
50 cm × 50 m
Thickness
460–480 µm
Mass per unit area
0.35–0.38 kg/m²
Service temperature
−80 to +150 °C
Substrates
Metal, composite, textile, concrete
UV / humidity resistance
ISO 16474-3: 5+ years
Fire performance
UL 94 / ASTM D3801 : UL V-1
Service life
Up to 10 years
Price
€80.00/m²
Applications: transport (trucks, trains, buses, vehicles), outdoor electronic enclosures and cabinets, containers, silos and buildings, aerospace applications and technical textiles.
Glacier 110 or Polar 90? Glacier 110 is justified when the aim is to reach below-ambient temperatures, or on low thermal mass substrates where every degree counts. Polar 90 remains the economical solution for large roof areas.

Glacier 110: specification and samples

Samples and LNE / TESA SE measurement reports available on request.

Request a sample

Reflectance, emittance and SRI: LNE report, August 2026. Calculated surface temperature and second SRI: TESA SE report. Other properties: SolCold Glacier 110 technical data sheet.

09 / IN THE FIELD

Real projects. Documented results.

Airports, warehouses, glazing and equipment: discover the solutions used and the results reported under their operating conditions.

Thermographic images before and after treatment of a boarding bridgeTHERMOGRAPHY / BEFORE & AFTER
SINGAPORE / CHANGI

Less heat.
Less air conditioning.

44%

Reported average annual air-conditioning savings after two years of testing on boarding bridges.

−20 to −35 °C
Roof surface
−15 °C
Side walls

Thermographic images and results: manufacturer case study from Singapore, operating boarding bridges. Values are specific to the test conditions and cannot be directly extrapolated.

Treated metal roof at Hangzhou airport02
HANGZHOU / AIRPORT

Large roofs. Less heat gain.

−21.7 °CInner surface · reported maximum
Challenge
Metal roof with high solar exposure.
Solution
Large-scale application of reflective films.
FR Series ↗
Storage warehouse after roof treatment03
STORAGE / GRAIN & SILOS

Protect what matters.

−10.2 °CWarehouse air · reported maximum
Challenge
Foodstuffs and materials sensitive to temperature peaks.
Solution
Reduce heat gain through the envelope and stabilise storage conditions.
Applications on technical rooms and substations04
EQUIPMENT / TELECOMS

Performance protected from heat.

−13.5 °CInternal temperature · reported case
Challenge
Small exposed spaces and sensitive equipment.
Solution
Treat the envelope to limit temperature peaks and equipment cooling needs.
FR Series ↗
Glazed façade of a monitored shopping centre05
GLAZING / COMMERCIAL BUILDINGS

Comfort in full daylight.

−11.5 °CBlack globe temperature · reported case
Challenge
Significant solar gain through glazing.
Solution
Match the film to the glazing and the desired light level.
T Series ↗
Treated silos and storage facilities06
INDUSTRY / TANKS & SILOS

Control heat. Protect materials.

Curved surfacesVarious substrates and geometries
Challenge
Heat gain in structures and stored products.
Solution
Film or coating depending on the substrate and geometry.
Parasol and textile shading structures07
OUTDOOR / TEXTILES

Shade becomes a technology.

No power requiredPassive solar protection
Challenge
Radiation received by occupants and surfaces.
Solution
Blinds, covers, shade fabrics and portable protection.
Textile Series ↗
ENERGY / COMFORT / OPERATIONS

From buildings to transport.
Results to assess in the field.

These cases are reported by manufacturers. Each result relates to a specific site and its test conditions.

01 / FOXCONN / SHENZHEN

Pilot modules

−61 %electricity consumption

14.4 → 5.6 kWh measured over three days. A particularly favourable pilot configuration, to be confirmed at a larger scale.

02 / AB INBEV / INDUSTRY

Brewing silos

−31 %energy consumption

+0.5 percentage point in extraction yield; 34% fewer days above 26 °C. Estimated payback: 0.5 year, excluding carbon credits.

03 / IT / BUILDING

Server rooms

−30 %energy consumption

Indoor temperature reduced by 5 to 6 °C at the monitored site. Estimated payback: 2.9 years, excluding carbon credits.

04 / MOBILITY / TRANSPORT

Buses & trucks

−6 to −12 °Cinside the bus

Bus: −30% air-conditioning consumption. AB InBev truck: −20 to −30 °C on the roof and up to −6 °C inside.

APPLICATION AREASSchools • shopping centres • offices • hospitals • airports • data centres • logistics warehouses

Other airports: Haneda, Hangzhou and Xiamen
Case studies — transport

Haneda, Hangzhou, Xiamen: different configurations, one objective

Thermographic image of a boarding bridge at Haneda airport
Tokyo — Japan

Haneda airport

On a treated boarding bridge, the documentation reports a roof temperature difference of 25.3 °C, with a surface maintained up to 6.3 °C below ambient air temperature. The interior ceiling also showed a difference of around 8.2 °C.

Treated metal roof at Hangzhou airport
Hangzhou — China

International airport

Large-scale application on a metal roof. Preliminary data indicate a reduction in the temperature of the inner surface of up to 21.7 °C.

Treated boarding bridges at Xiamen Gaoqi airport
Xiamen — China

Gaoqi airport

A project combining reflective and transparent films on a boarding bridge. The documentation reports a reduction in surface temperature of up to 32.3 °C and a reduction in conditioned air temperature of around 4 °C.

Applications

Why terminals are suitable

Metal roofs, glazed façades, boarding bridges and technical areas often experience high solar loads. Combining opaque and transparent films allows the entire envelope to be treated while preserving the use of glazing.

RoofGlazingComfortEnergy
Glazing: glazed roofs, façades and domes
Case studies — glazing

Glazed roofs, façades and domes: managing radiation before it heats the interior

Glazed roof treated with transparent film
Glazed roof

Daily peak reduced by 4.7 °C

During a test period with air conditioning set to 26 °C, the average daily peak temperature fell by 4.7 °C after film application.

Glazed façade of a monitored shopping centre
Glazed façade

Significantly improved perceived comfort

A monitored shopping centre recorded up to −11.5 °C in black globe temperature and −3.4 °C in air temperature. The estimated percentage of dissatisfied occupants fell from 100% to 16% in the study.

Glazed dome treated with a radiative coating
Glazed dome

Reduced radiant temperature

With ambient air at 35 °C and simulated air conditioning at 26 °C: mean radiant temperature 33.7 → 26.4 °C, standard effective temperature 29.5 → 25.8 °C, PPD 28 → 5 %.

The right film depends on the glazing

Light transmission, colour, solar rejection, installation position and any Low-E coating must be checked before specifying a film.

Industry: tanks, sensitive storage warehouses and logistics roofs
Case studies — industry

Tanks, reservoirs, warehouses: limiting product and structure temperatures

Treated oil storage tanks

Oil storage tanks

Reducing wall and contents temperatures can lower internal pressure, limit evaporation losses and improve operational safety during hot weather.

Treated roof of a temperature-sensitive warehouse

Temperature-sensitive warehouses

Radiative solutions are particularly suited to buildings where preservation depends on stable temperatures: food, beverages, pharmaceuticals or sensitive materials.

Treated logistics roof, temperature readings

Logistics roofs

Across large roof areas, every degree of heat gain avoided at the envelope helps reduce the building's overall thermal load.

Treated silos and storage facilities

Silos and storage

Highly exposed roofs and curved walls can be treated with film or coating, depending on the substrate and geometry.

15–25 °Creported indoor temperature reduction in some cases
30–40 %reported energy savings in air-conditioned structures
≈ 10 yearsstated service life, depending on the solution

Results reported by manufacturers. Performance varies with climate, geometry, orientation, substrate, insulation and building use. To be confirmed by a project-specific study.

10 / FIND YOUR SOLUTION

Which surface do you want to cool?

A starting point for matching your substrate with the right family of materials.

YOUR STARTING POINTMetal roof / cladding

FR Series or Polar 90

Reduce surface temperature and air-conditioning load

Explore this solution

Indicative recommendation. Substrate, exposure and application conditions must be validated for each project.

01 / STUDY

Start with the building.

Air-conditioning consumption, exposed surfaces, temperatures and occupancy profile.

02 / ESTIMATE

Calculate avoided costs.

Estimated annual savings = cooling consumption × energy price × reduction rate.

03 / EXPAND

Consider the wider benefits.

Comfort, peak power demand, thermal ageing and protection of goods.

Selection matrix and full Polar 90 / Glacier 110 comparison
Choosing the right solution

Specification by application, substrate and energy objective

SituationRecommended solutionMain objective
Metal roof / claddingFR Series or Polar 90Reduce surface temperature and air-conditioning load
Glazed façade / glazed roofT SeriesReduce solar gain through glazing
Electrical / telecom cabinetsFR SeriesLimit temperature peaks and equipment cooling runtime
Tanks / silos / reservoirsFR Series or Cooleco CoatingsProtect products, reduce pressure and heat gain
Architectural façadeCooleco W3111-14Cooling + surface protection
Blinds / textiles / outdoorCooleco Textile SeriesComfort and solar protection without power
Low thermal mass substrate, sub-ambient targetGlacier 110Reach below ambient air temperature (TESA SE calculation)
Requirement for third-party performance evidencePolar 90 or Glacier 110Specification supported by SRI measurements from two laboratories (LNE, TESA SE)

Energy study

We start with air-conditioning consumption, exposed surface areas, surface temperatures and the occupancy profile.

Avoided costs

Estimated annual savings = cooling consumption × energy price × reduction rate.

Additional benefits

Comfort, reduced peak power demand, less thermal ageing and protection of goods.

Comparison of the two films — LNE & TESA SE measured data

PropertyPolar 90Glacier 110ASTM E1980 reference white
Solar reflectance (LNE)87.7 %89.5 %80 %
Emittance at 25 °C (LNE)85.5 %83.4 %90 %
SRI LNE (convection 12 W/m²K)110.5112.8100
TESA SRI (same conditions)114121100
Surface temperature (TESA)39.5 °C36.7 °C44.6 °C
Difference / air temperature+2.6 K−0.2 K+7.7 K
Reflected solar energy877 W/m²895 W/m²800 W/m²
Specification rationale. When dealing with an engineering consultant, insurer or public-sector client, the SRI measured by two independent laboratories (LNE and TESA SE) is the most robust data in the catalogue: standardised, comparable and independently verified. By contrast, the FR, T, Textile and Coatings ranges rely on supplier data, to be confirmed by testing if the contract requires it.
Economics & methodology

ROI is calculated from the building, not the product alone

A rollout decision relies on a monitored pilot, not just a product data sheet.

1 · Baseline

12 months of consumption and hourly profiles for the existing building.

2 · Model

Area, insulation, weather, setpoints and building use.

3 · Pilot

An on-site treated area and a monitored control area.

4 · Decision

Normalised savings and full costs validated before wider deployment.

Simple payback = total investment ÷ net annual savings. Include preparation, installation, downtime, maintenance, cleaning, financing and any incentives.

Illustrative payback for 1,000 m² at €45/m² excl. VAT (reference investment: €45,000 excl. VAT)

4.5 yearsconservative scenario — €10k/year savings
3.0 yearscentral scenario — €15k/year savings
2.25 yearshigh-savings scenario — €20k/year savings
0.5 to 2.9 yearsreported payback in real field cases (silos, server rooms)

Illustrative scenarios to be replaced with the site's invoices, measurements and installation conditions.

Proposal: validate the decision with a monitored pilot

Recommended scope

  • A representative area and a comparable control area.
  • 4 to 8 weeks during a hot period.
  • Surface / air temperatures, weather and cooling consumption.
  • A normalised before / after report with a deployment decision.

Deliverables

  • Substrate assessment.
  • Installation and safety plan.
  • Instrumentation and monitoring.
  • Energy assessment and budget for wider deployment.

A pilot turns a product promise into site-specific evidence

We offer an assessment, quotation and pilot plan tailored to your building.

Let's assess your pilot site

The €45,000 excl. VAT represents an illustrative supply cost for 1,000 m² of Polar 90. For your project, the calculation must include the full implementation cost and measured savings. Payback periods of 0.5 to 2.9 years relate to specific cases, with no guarantee of identical results.

References

SolCold, over 70 clients and partners worldwide

Examples provided by SolCold, manufacturer of the Polar 90 and Glacier 110 films distributed in France by Cooleco.

Coca-ColaBentleyAmazon AB InBevVolkswagenElbit Systems ICLCapitaland
11 / PRODUCTS & PRICING

Your solution. A clear budget.

2026 catalogue · Selling prices excl. VAT.
Supply only, excluding transport, insurance and installation.
Edition valid until 31 December 2026.

20 products

Cooleco 2026 prices in euros, excluding VAT
Product / CodeFormatApplicationPerformancePrice excl. VAT
FR1S3001.225 × 50 m — matt silverRoofs / opaque surfacesRefl. 89% · ε 0.93€35.80/m²
FR5S3001.206 × 25 m — matt silverRoofs / opaque surfacesRefl. 89% · ε 0.93€35.80/m²
FR5B1001.206 × 25 m — whiteRoofs / opaque surfacesRefl. 90% · ε 0.93€35.80/m²
T36300WGrey — exteriorWindows / glazed roofsTSER 56.4%€29.80/m²
T44300NGrey — interiorWindows / glazed roofsTSER 60.5%€29.80/m²
T13300WSilver — exteriorWindows / glazed roofsTSER 83.3%€38.74/m²
T67300WGrey — depending on modelWindows / glazed roofsTSER 62.0%€29.80/m²
TP500150D Oxford — 1.5 × 70 mShading / coversRefl. 85%€13.35/m
TP40030D mesh — 1.4 × 50 mShading / coversRefl. 82%€12.60/m
HC1-3200D Oxford — ivory/blackShading / coversRefl. 74%€9.32/m
HC1-5600D Oxford — khaki/whiteShading / coversRefl. 80%€12.60/m
HC1-1Depending on productTextile / outdoorDepending on product€5.54/m
HC1-2Depending on productTextile / outdoorDepending on product€6.30/m
HC1-4Depending on productTextile / outdoorDepending on product€11.08/m
Cooleco 30DDepending on productTextile / outdoorDepending on product€11.08/m
Cooleco 50DDepending on productTextile / outdoorDepending on product€11.84/m
P3111 + P3112 + P31133-coat systemMetal substratesRefl. 88% · ε 0.90€31.60/m²
W3111 + W3112 + W3113 + W31144-coat systemFaçadesRefl. 90% · ε 0.88€13.50/m²
Polar 9052 cm × 100 mLarge surfacesSRI LNE 110.5 · TESA 114€45.00/m²
Glacier 11050 cm × 50 mLow thermal mass / sub-ambientSRI LNE 112.8 · TESA 121€80.00/m²

Indicative installation+€12/m², depending on the project

FR filmsMinimum 30 rolls / model

TextilesMinimum 1,500 m / product

Commercial terms and technical data sources
Prices & terms

Cooleco 2026 products

FamilyReferencesSelling price excl. VAT
Reflective filmsFR1S300 / FR5S300 / FR5B100€35.80/m²
Transparent filmsT36300W / T44300N / T67300W€29.80/m²
High-performance transparent filmT13300W€38.74/m²
SolColdPolar 90€45.00/m²
SolColdGlacier 110€80.00/m²
TextileTP500€13.35/m
TextileTP400 / HC1-5€12.60/m
TextileHC1-3€9.32/m
Metal coatingP3111 + P3112 + P3113€31.60/m²
Architectural coatingW3111 + W3112 + W3113 + W3114€13.50/m²

Commercial terms

Selling prices in euros, excluding VAT, transport, insurance and installation. Indicative installation: +€12/m². Edition valid until 31/12/2026. Performance figures come from manufacturers' tests and documentation and must be confirmed for each project.

Source and status of technical data

SolCold Polar 90
SolCold Glacier 110
Solar reflectance, emittance and SRI measured by LNE (August 2026 report, convection 12 W/m²K). Surface temperatures and second SRI calculated by TESA SE (Hamburg) under the same conditions. Cooling power, thickness, sizes and service life: SolCold technical data sheets.
FR, T and Textile ranges
and Cooleco Coatings
Properties from suppliers' technical documentation, not yet verified by a third-party laboratory. They are provided as manufacturer data.
Case studies
Results reported by manufacturers from operational sites. Values are specific to the test conditions and cannot be directly extrapolated.
DATA, WITH CONTEXT.

Measure. Distinguish. Document.

SolCold: radiative measurements by LNE (August 2026) and TESA SE; SRI and temperatures calculated according to ASTM E1980, convection 12 W/m²K. FR, T, Textile and Coatings: supplier data. Field cases: reported results, specific to the test conditions.

Request technical documents
FROM MATERIAL TO PROJECT

What could your building gain?

Tell us about your surface area, substrate, location and consumption. We help you choose a solution and estimate the potential of your project.

Energy study · Specification · Supply · Support

FRANCE / DÉCINES-CHARPIEU0805 69 09 49

3 rue de Lombardie
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COOLECO / CASE STUDY
Case study — transport

Singapore airport: a monitored reference case

Air-conditioned passenger boarding bridges were treated with reflective film and compared with reference bridges. The study reports a significant reduction in envelope temperature and average annual air-conditioning consumption.

Thermographic images before and after treatment of a boarding bridge
Cropped thermographic images: comparison before / after treatment.

Air-conditioning energy — normalised comparison

Base 100 = reference boarding bridge.

Reference boarding bridge100
Treated boarding bridge56 (−44 %)

Normalised representation based on the reported average annual savings after two years of testing.

−20 to −35°Creported reduction in roof surface temperature
−15°Creduction in side-wall temperature
44%reported average annual savings after two years of testing
Fieldmeasurements on operating boarding bridges

What this case demonstrates

For an air-conditioned, low thermal mass space with high solar exposure, reducing heat gain through the envelope directly reduces the heat the air-conditioning system must remove. This remains a reference case and should not be directly extrapolated to all buildings.

Confidential manufacturer case study — Singapore Changi Airport. Values specific to the test conditions.

COOLECO / CASE STUDY
Case studies — transport

Haneda, Hangzhou, Xiamen: different configurations, one objective

Thermographic image of a boarding bridge at Haneda airport
Tokyo — Japan

Haneda airport

On a treated boarding bridge, the documentation reports a roof temperature difference of 25.3 °C, with a surface maintained up to 6.3 °C below ambient air temperature. The interior ceiling also showed a difference of around 8.2 °C.

Treated metal roof at Hangzhou airport
Hangzhou — China

International airport

Large-scale application on a metal roof. Preliminary data indicate a reduction in the temperature of the inner surface of up to 21.7 °C.

Treated boarding bridges at Xiamen Gaoqi airport
Xiamen — China

Gaoqi airport

A project combining reflective and transparent films on a boarding bridge. The documentation reports a reduction in surface temperature of up to 32.3 °C and a reduction in conditioned air temperature of around 4 °C.

Applications

Why terminals are suitable

Metal roofs, glazed façades, boarding bridges and technical areas often experience high solar loads. Combining opaque and transparent films allows the entire envelope to be treated while preserving the use of glazing.

RoofGlazingComfortEnergy
COOLECO / CASE STUDY
Case studies — storage & industry

Warehouses, grain and silos: stabilising temperatures without additional cooling

Food and sensitive-material storage directly benefits from a cooler envelope: indoor temperatures stabilise, air-conditioning loads fall and products are less exposed to temperature peaks.

Storage warehouse after roof treatment
Storage warehouse after roof treatment.

Reported temperature results

Temperature reduction reported in the case study (°C).

Warehouse (max.)−10.2 °C
Average A/C savings39.5 %
Grain surface−4.5 °C

Annual study target: keep grain below 25 °C — achieved during the year assessed.

−10.2°Cmaximum reduction in warehouse indoor air temperature (Zhejiang granary)
39.5%reported average savings with air conditioning
−4.5°Cmaximum reduction in grain surface temperature
<25°Cannual grain-temperature target achieved in the study

Additional economic impact

Beyond energy, more stable temperatures can reduce air-conditioning installation and maintenance requirements, slow deterioration of stored products and improve preservation quality.

Foxconn modules — Shenzhen

On pilot modules, electricity consumption measured over three days fell from 14.4 to 5.6 kWh, representing energy savings of 61 %. A particularly favourable pilot configuration, to be confirmed at a larger scale.

−61% energy14.4 → 5.6 kWh / 3 days

AB InBev — brewing silos

On treated silos, the operator reports −31 % energy consumption, +0.5 percentage point in extraction yield and an estimated payback of 0.5 year (excluding carbon credits), with 34% fewer days above 26 °C.

−31% energy0.5-year payback
COOLECO / CASE STUDY
Case studies — outdoor equipment

Electrical cabinets, telecoms and substations: protecting sensitive equipment

Small cabinets and technical rooms heat up very quickly in sunlight. By reducing envelope temperature, radiative solutions can limit internal peaks and equipment cooling runtime.

Applications on technical rooms and substations
Examples of applications on technical rooms and substations.

Monitored case — electrical cabinet

Maximum reported difference (°C).

Cabinet surface−33 °C
Internal temperature−13.5 °C

Summary of the reported orders of magnitude from a monitored case.

Reduce temperature peaks

A cooler envelope limits indoor air temperature and reduces stress on electronics, batteries, control systems and auxiliary equipment.

Reduce air-conditioning runtime

Other supplier tests indicate significantly shorter air-conditioner operating periods in technical rooms after treatment of exposed surfaces.

Electrical & telecom enclosures

Limit internal heat gain, protect electronics and reduce active cooling.

Data centres & server rooms

Reduce heat gain through the envelope and the load on cooling systems.

Schools

Improve comfort in classrooms with limited or no air conditioning during hot weather.

Batteries, photovoltaics & refrigeration

Treat enclosures, panels and technical equipment exposed to sunlight.

Feasibility depends on the substrate, ventilation, access and maintenance constraints.

Server rooms

At a monitored site, radiative solutions are reported to achieve −30 % energy consumption, −5 to −6 °C indoor temperature and an estimated payback of 2.9 years (excluding carbon credits).

−30% energy2.9-year payback

Buses & trucks

On buses, a reduction of −30 % in air-conditioning consumption and −6 to −12 °C inside the cabin is reported. On an AB InBev truck, the roof temperature falls by −20 to −30 °C and the interior by up to −6 °C : comfort, range and protection of sensitive loads.

−30% bus A/C−20 to −30 °C truck roof

Cabinets, substations, shelters, edge data centres

We can size a solution according to dissipated power, substrate and solar exposure.

Cooleco study
COOLECO / CASE STUDY
Case studies — glazing

Glazed roofs, façades and domes: managing radiation before it heats the interior

Glazed roof treated with transparent film
Glazed roof

Daily peak reduced by 4.7 °C

During a test period with air conditioning set to 26 °C, the average daily peak temperature fell by 4.7 °C after film application.

Glazed façade of a monitored shopping centre
Glazed façade

Significantly improved perceived comfort

A monitored shopping centre recorded up to −11.5 °C in black globe temperature and −3.4 °C in air temperature. The estimated percentage of dissatisfied occupants fell from 100% to 16% in the study.

Glazed dome treated with a radiative coating
Glazed dome

Reduced radiant temperature

With ambient air at 35 °C and simulated air conditioning at 26 °C: mean radiant temperature 33.7 → 26.4 °C, standard effective temperature 29.5 → 25.8 °C, PPD 28 → 5 %.

The right film depends on the glazing

Light transmission, colour, solar rejection, installation position and any Low-E coating must be checked before specifying a film.

COOLECO / CASE STUDY
Case studies — industry

Tanks, reservoirs, warehouses: limiting product and structure temperatures

Treated oil storage tanks

Oil storage tanks

Reducing wall and contents temperatures can lower internal pressure, limit evaporation losses and improve operational safety during hot weather.

Treated roof of a temperature-sensitive warehouse

Temperature-sensitive warehouses

Radiative solutions are particularly suited to buildings where preservation depends on stable temperatures: food, beverages, pharmaceuticals or sensitive materials.

Treated logistics roof, temperature readings

Logistics roofs

Across large roof areas, every degree of heat gain avoided at the envelope helps reduce the building's overall thermal load.

Treated silos and storage facilities

Silos and storage

Highly exposed roofs and curved walls can be treated with film or coating, depending on the substrate and geometry.

COOLECO / CASE STUDY
Outdoor applications & comfort

Blinds, covers, tents and shading: reducing heat gain at the point of use

Comparison of solar-protection car covers
Examples of car covers and outdoor protection.
Parasol and textile shading structures
Shading applications and textile structures.

Portable solar protection

For vehicles, equipment, tents and temporary areas, reflective textiles can limit temperature increases without electrical power.

Occupant comfort

Exterior blinds, interior blinds, curtains and shade fabrics reduce the radiation received by occupants and indoor surfaces, directly improving perceived comfort.