Passive Cooling • 15 × 15 cm

Heatless Cooling Tile for Cooler Surfaces

Manage heat with our layered surface design. Using reflective foil, insulation, and recycled materials, Heatless provides a cooler area for your desk or patio.

Local DeliveryFast shipping options
Simple DesignLayered cooling tech
Recycled BaseCommunity sourced caps
Heatless Cooling Tile
Heatless cooling tile on a desk
15 × 15 cm
Data coming soon
Reflective Foil
Top Layer
Reflective Foil
15×15 cm4.9
Air-Gap Core
Insulation
Air-Gap Core
15×15 cm5.0
Recycled Caps
Structure
Recycled Caps
15×15 cm4.8
Our Story and Philosophy

Built From Simple Materials. Designed for a Cooler Surface.

Turning Everyday Materials Into Cooling Solutions.

Heatless began with a direct question: could we deliver measurable passive cooling on everyday surfaces without electricity or chemical refrigerants? By pairing solar-reflective surfaces with insulating waste materials, we turn accessible items into practical thermal defense.

“Heatless explores how commonly available and recycled materials can be combined into practical cooling solutions.”

Heatless Design & Materials Principle

Layer Principle 01
Founding Purpose
Zero Power, Zero Chemicals
Heatless was founded to create practical passive cooling without electricity, complex machinery, or chemical refrigerants—relying purely on physical reflection and honest thermal insulation.
15 × 15 cm Architecture
Layer Principle 02
Community Sourcing
Recycled Bottle Cap Core
Through local community collection drives, discarded plastic bottle caps are gathered and arranged to create an insulating core layer, turning post-consumer plastics into an effective heat barrier.
15 × 15 cm Architecture
Layer Principle 03
Material Honesty
Transparent Layered Design
Every tile combines reflective foil, corrugated air-gap cardboard, collected bottle caps, and a solid timber base. No hidden synthetics—just tangible materials engineered to manage surface heat.
15 × 15 cm Architecture

Discover the Construction Behind the Tile

Inspect the four physical strata from solar-reflective top foil to community-collected bottle caps and birch timber base.

HOW HEATLESS WORKS // 4-TIER ARCHITECTURE

Exploded Passive Cooling Mechanics

By coupling direct solar reflectance with dead-air trapped insulation and community-recycled polymers, Heatless interrupts conductive and radiant thermal transfer across a compact 15 × 15 cm profile.

SOLAR REFLECTION
CORRUGATED AIR GAPS
RECYCLED CAP MASS
15 × 15 CM TIMBER BASE
EXPLODED VIEW CAD DIAGRAMScale: 150 mm × 150 mm × ~27 mm
INCIDENT SOLAR RADIATIONSOLAR LOAD

Radiant energy strikes the high-albedo metallic film surface first.

01

Reflective Foil

(0.2 mm)

Top Protective Barrier

SURFACE LAYER
02

Air-Gap Insulation

(4.5 mm)

Corrugated Cardboard Substrate

THERMAL BARRIER
03

Recycled Bottle-Cap Layer

(10.0 mm)

Repurposed Plastic Core

CORE MASS
04

Wooden Base

(12.0 mm)

Solid Timber Foundation

STRUCTURAL BASE
Protected Under-Surface: Cool & Structurally Solid
PHYSICAL FORMAT: 15 × 15 CM (150 × 150 MM)ZERO ELECTRICAL DRAW // ZERO CHEMICAL COOLANTS
SELECTED LAYER ANALYSISTIER 01 OF 04

Reflective Foil

Top Protective Barrier • Nominal Thickness: 0.2 mm

PRIMARY THERMAL FUNCTION

Reflects direct solar radiation before it converts to heat energy.

Material Composition:

Specially formulated metallic foil face engineered to bounce radiant sunlight away from the tile surface, significantly minimizing solar thermal absorption.

Physical Physics Principle:

High solar reflectance index (SRI) to repel visible and near-infrared radiant energy.

Select another layer:

Surface Comparison Integrity

VERIFICATION

We compare Heatless tiles against conventional uninsulated surfaces (plastic, bare metal, dark laminate) under direct ambient sunlight.

Temperature test data coming soon
SIDE-BY-SIDE THERMODYNAMIC ANALYSIS

Traditional Surface vs. Heatless Tile

Why standard outdoor tables absorb heat and how our 4-layer stack behaves differently.

TRADITIONAL SURFACE

High Direct Heat Absorption

Single-layer materials (dark plastic patio furniture, raw sheet metal, uninsulated stone) absorb incident photons rapidly.

  • Low Reflectance: Direct sun is absorbed rapidly as thermal energy.
  • Solid Conduction: Heat conducts directly through the material to whatever rests on top.
  • Warming Effect: Drinks warm quickly and items become hot to the touch.
BEHAVIOR: RAPID HEAT ACCUMULATIONTHERMAL PASS-THROUGH
HEATLESS TILE (15 × 15 CM)

Reflected Solar + Stagnant Air Dampening

A multi-layered barrier system where reflection halts the majority of thermal input, while air cavities trap the remainder.

  • Reflective Surface: Top foil bounces radiant sunlight back into the environment.
  • Dead-Air Insulation: Fluted corrugated channels arrest downward conduction.
  • Recycled Polymer Core: Traps residual ambient air above a sturdy timber base.
DATA STATUS:Temperature test data coming soon
AUTHENTIC PASSIVE COOLING FAQ

Frequently Asked Questions

Straightforward answers about our construction, zero-energy physics, and testing standards.

ONE PURPOSE-BUILT 15 × 15 CM TILE. ZERO ENERGY.

Thermal Comparison • Material Physics Study

How Heatless Works

A side-by-side physical study in solar thermal transmission. Traditional surfaces store and bleed heat, while Heatless pairs specular reflection with isolated air cavities to shield the resting plane.

Format: 15 × 15 cm
Temperature test data coming soon
Infrared Sensor Diagnostic Array|CALIBRATION: PASSIVE THERMAL
Absorption ZoneReflection Shield
THERMAL_BUILDUP_ACTIVE
RAD-01// Standard Material Surface
Continuous Solar AbsorptionRadiates stored thermal mass into objects
FLUX STATE:Stored Heat Bleed
SOLAR_DEFLECTION_ACTIVE
RAD-02// Heatless 15 × 15 cm Tile
Surface Reflection & Air BarrierInterrupts conductive and radiative transmission
FLUX STATE:Thermal Bleed Blocked
SENSOR METRIC NOTE:Zero fabricated values. Empirical comparative testing in progress.
Temperature test data coming soon
Direct Solar Intake
Traditional Surface
Solid wood, laminate, plastic, and metal surfaces readily absorb solar radiation and radiate stored heat.

Absorbs Solar Radiation

Unprotected materials absorb direct ultraviolet and infrared sunlight, transforming photon energy into heat.

Radiates Stored Heat

Accumulated thermal energy remains trapped within material mass and radiates outward into drinks and resting items.

Direct Conductive Path

Without physical decoupling or air gaps, thermal conduction travels unimpeded across the entire tabletop.

Material Reality

Tables and desks placed near windows, patios, or outdoor sunlight become localized heat reservoirs, warming chilled glassware and notebooks.

Passive Thermal Decoupling
Heatless Cooling Tile
Engineered 15 × 15 cm architectural format pairing specular solar reflection with multi-stage air barriers.

Reflects Direct Sunlight

Top reflective foil layer acts as an optical shield, reflecting solar rays before thermal energy enters the structure.

Blocks Thermal Bleed

Corrugated air chambers and recycled bottle-cap cavities interrupt heat transfer, keeping the resting surface isolated.

Zero Power • Simple Materials

Functions purely through physics and craftsmanship—no electricity, no toxic chemicals, and no mechanical moving parts.

Target Deployment

Ideal compact surface for desks, outdoor tables, patios, and balconies to support cold drinks or resting hands in sunlight.

The Four Physical Layers

Honest physical construction combining accessible and community-recycled materials.

Layer 01Solar Reflection

Reflective Foil

Specialized specular foil top surface reflects direct sunlight, preventing solar radiation from entering the tile substrate.

Layer 02Thermal Decoupling

Air-Gap Corrugation

Fluted cellulose channels establish sealed non-conductive air chambers that disrupt direct thermal bridging.

Layer 03Insulating Air Cavity

Recycled Bottle Caps

Community-collected polymer caps create geometric spacing and secondary air insulation below the core flutes.

Layer 04Rigid Contact Isolation

Solid Wood Base

Untreated timber chassis grounds the 15 × 15 cm form, providing structural rigidity and insulating the underlying table or desk.

Dimension Spec150 × 150 mm

Place It Where You Need a Cooler Surface.

Engineered as a single tactile unit that moves wherever ambient heat builds up. No wires, no chemicals, just passive layer insulation for your everyday surfaces.

Selected Everyday Placements (5 Scenarios)
Heatless cooling tile placed on a work desk supporting a condensation cold drink glass
Workstation & Studio
150 mm
Everyday Focus01 / 05

Desk With a Cold Drink

Keeps chilled drinks stable without surface heat bleed or warm desk absorption.

Passive IsolationReflect + Air Gap
Heatless tile under direct sun on an outdoor wooden dining table
Garden & Terrace
150 mm
Sunlight Reflection02 / 05

Outdoor Table

Direct sunlight reflection prevents wood and metal tables from radiating intense stored heat.

Passive IsolationReflect + Air Gap
Heatless cooling tile resting on warm stone patio pavers next to seating
Sun Deck & Lounge
150 mm
Thermal Barrier03 / 05

Patio Surface

Rests easily on stone, tile, or composite pavers to provide an unheated spot for everyday items.

Passive IsolationReflect + Air Gap
A clean wooden school desk with a Heatless tile holding an insulated tumbler
Classroom & Study Hall
150 mm
Compact Footprint04 / 05

School Desk

Compact 15 × 15 cm profile leaves plenty of room for books, notebooks, and water bottles.

Passive IsolationReflect + Air Gap
Small urban balcony table overlooking city light with a Heatless cooling tile in use
Apartment Loggia
150 mm
Portable Cooling05 / 05

Balcony Table

Lightweight and portable heat mitigation for narrow spaces exposed to direct morning or midday glare.

Passive IsolationReflect + Air Gap

Standard 15 × 15 cm sizing: fits standard coffee mugs, water glasses, laptop corners, and outdoor serving trays without extra setup.

How Layers Work