Aerogel Insulation Blanket: SINOYQX Aerogel–Melamine Ultra-Thin Micro-Insulation (Thermal Conductivity as Low as 0.012 W/m·K)

Aerogel Insulation Blanket for Compact High-Temperature Heat Sources

SINOYQX Aerogel–Melamine Micro-Insulation Series

As modern batteries, energy storage systems (ESS), inverters, SiC/IGBT power modules, and fast-charging electronics become smaller and more powerful, heat is increasingly concentrated in tighter spaces. Conventional insulation often faces three common bottlenecks:

  1. No room for thickness — the insulation layer must be ultra-thin.
  2. Not enough temperature separation — thin materials often can’t block high heat flux effectively.
  3. Higher safety requirements — flame resistance and durability are now mandatory.

SINOYQX Aerogel–Melamine Micro-Insulation Series is built to solve these challenges. It delivers ultra-thin (1–4 mm) thermal barrier performance, scalable converting, and laminate compatibility—helping engineers keep heat where it belongs and protect sensitive components in micro-space designs.

1) Positioning: Focused on the Global “Compact High-Temperature Heat Source Insulation” Market

SINOYQX targets the most demanding and fastest-growing thermal management scenarios:

  • Micro-space constraints: cell-to-cell gaps, module cavities, enclosure interiors, and tight assemblies
  • High heat flux density: rapid temperature rise and short heat spreading paths
  • Safety-first design: flame retardancy, thermal stability, and testable performance

This platform supports multiple industries including batteries/ESS, power electronics, consumer electronics, and industrial equipment.

2) Value Proposition (Core Claims)

✅ Ultra-thin 1–4 mm structures: meaningful temperature separation in limited space

With proper stack-up and boundary conditions, designs can achieve 20–50°C temperature difference (dependent on heat source power, contact resistance, and cooling boundaries).

✅ Thermal conductivity as low as 0.012 W/m·K: thin, yet highly effective

This series can reach thermal conductivity as low as 0.012 W/m·K (subject to thickness, density, temperature, test method, and laminate configuration).
This enables higher thermal resistance per millimeter—allowing you to stay thin while improving thermal separation.

✅ Inherently flame-retardant pathway: UL94 V-0

For battery and power electronics, fire safety is a hard requirement. This series supports UL94 V-0 grade design and validation (subject to third-party test reports).

✅ Wide operating temperature window: -200°C to +240°C

Suitable for thermal cycling, long-term service, and harsh environments across a wide temperature range.

✅ Converter-friendly: die-cutting, bonding, and lamination (PET/PI/aluminum foil)

Engineered for engineering adoption and mass production:

  • Die-cut / kiss-cut converting
  • Bonding / PSA backing
  • Lamination stack-ups with PET / PI / aluminum foil and other functional layers

✅ Optimized for micro-space, small volume, and high heat flux

Designed for thermal barriers, hot-spot shielding, thermal-runaway mitigation structures, and sensitive-component protection.

3) Typical Specifications (For Website Display)

Note: Values vary by grade, thickness, density, laminate stack-up, and test conditions. Final specifications should be confirmed by test reports.

ItemTypical Capability
Thickness range1–4 mm (customizable)
Thermal conductivityas low as 0.012 W/m·K (condition dependent)
Flame retardancySupports UL94 V-0 pathway (per test reports)
Operating temperature-200°C to +240°C
ConvertingDie-cutting, bonding/PSA, lamination
Lamination optionsPET / PI / aluminum foil (custom stack-ups)
Target scenariosMicro-space, high heat flux, compact hot sources

4) Battery & ESS: Turning Thermal Safety Into Structure

In battery systems, insulation is not only about blocking heat—it’s about increasing system safety margin and improving containment design.

Typical integration points include:

  • Cell-to-cell thermal barriers to delay heat transfer
  • Hot-spot shielding for wiring, plastics, sensors, and enclosures
  • BMS/PCS thermal isolation to reduce drift and stress from nearby heat sources
  • Thermal-runaway mitigation stack-ups using aluminum foil / PI laminates for multi-layer protection

The result is an engineered, scalable “thermal barrier structure”—not just thicker insulation.

5) Power Electronics: Stabilizing the Boundary Around SiC/IGBT Heat Sources

Power modules often suffer from concentrated heat near temperature-sensitive components and tight packaging.

Applications include:

  • IGBT/SiC module peripheral insulation
  • Inverter / DC-DC cavity lining to reduce heat spreading into enclosures
  • Protective stack-ups combining insulation + electrical insulation (PI) + thermal reflection (foil)

6) Consumer Electronics & Industrial Equipment: When Space Is the Biggest Constraint

For fast-charging, compact modules, and local hot zones inside small cavities, the key is often fit + manufacturability as much as thermal performance.

SINOYQX focuses on making insulation thin enough to integrate, and convertible enough to mass produce.

7) Engineering Adoption: A Simple 3-Step Approach

Step 1 — Define your heat source and boundaries
Power, contact interface, airflow/heat sinking determine achievable temperature separation.

Step 2 — Select stack-up and assembly method

  • Insulation only: single ultra-thin layer
  • Insulation + reflection: add aluminum foil
  • Insulation + electrical isolation: add PI
  • Faster assembly: PSA backing / positioning features

Step 3 — Lock specs with test methods
Fix the test standard, load/pressure, temperature points, and interface materials—then validate via internal or third-party reports.

8) FAQ

Q1: Under what conditions is 0.012 W/m·K measured?
A: Thermal conductivity depends on standard, temperature, thickness/density, compression, and laminate stack-up. For program adoption, define the test method and conditions and confirm by reports.

Q2: Can 1–4 mm really achieve 20–50°C temperature difference?
A: Yes—when total thermal resistance and interface/contact resistance are engineered properly. Actual results depend on stack-up and boundary conditions and should be validated with prototypes.

Q3: Can it be shaped and assembled efficiently?
A: Yes. The series supports converting (die-cutting), bonding/PSA, and lamination with PET/PI/aluminum foil for mass production.

Contact SINOYQX

If you are designing insulation for batteries, ESS, inverters, or any compact high-temperature heat source, SINOYQX can support samples, stack-up recommendations, benchmarking tests, and production adoption.

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