JunPus

JunPus thermal compounds deliver advanced heat dissipation solutions tailored for high-performance AI chips, CPUs, GPUs, and 5G base stations.

Engineered for cutting-edge semiconductor technologies,

our patented thermal pastes optimize thermal conductivity, ensuring stable performance under intensive workloads. Trusted across electronics, data centers, and telecommunications

Particle-packing concepts

JunPus concept:
mixed particle sizes

Illustrative
platelet-shaped filler

Conceptual cross sections: mixed-size blue rounded particles on the left and one example of teal platelet-shaped particles on the right, each within a binder between gray contact surfaces.

Small particles may occupy spaces between larger particles.

Particle shape and packing vary by formulation.

Pressure points.
Reliability over time.

Pressure-reference points

Thermal impedance · °C·cm²/W

Thermal impedance reference points: 10 psi 0.30, 20 psi 0.24, 30 psi 0.18, 45 psi approximately 0.10, and 60 psi 0.05 degrees Celsius square centimeters per watt.

45 psi is approximate. Dashed segments connect reference points; they are not a raw measurement curve.

Exposure test reference data

Exposure time: 0–1000 hours. Each series uses a fixed measurement pressure.
● 20 psi · ● 40 psi · ● 60 psi
Thermal impedance · °C·cm²/W

85°C / 85% RH exposure

Thermal impedance during 85°C / 85% RH exposure, at fixed 20, 40 and 60 psi over exposure times from 0 to 1000 hours.

125°C aging

Thermal impedance during 125°C aging, at fixed 20, 40 and 60 psi over exposure times from 0 to 1000 hours.

−40°C to 125°C thermal cycling

Thermal impedance during −40°C to 125°C thermal cycling, at fixed 20, 40 and 60 psi over exposure times from 0 to 1000 hours.

Measurement conditions: 20, 40 and 60 psi; 100 W; 60 minutes per measurement; 23 ± 3°C and 55 ± 3% RH; 10 specimens. Reference data, not a specification for the current formulation.

See the complete
thermal path.

CPU → DX1 interface → heatsink. Control the mounting, sensors, load and environment before evaluating the result.

Illustrative server thermal-interface test setup with contact load, heatsink, DX1 interface, heat source, sensing and ambient controls. Not measured JP-DX1 performance.

Validate suitability in your actual hardware and operating conditions.

X-Pattern Thermal Paste Application

The X pattern illustrates the application concept. Confirm the amount and method with your processor and cooler instructions.

Nano-Diamond Formula

Electrically Non-Conductive

Non-Curing Grease

Illustration of an X-shaped JP-DX1 application pattern.

Cross-Pattern Application

Apply JP-DX1 in an X-shaped pattern on the prepared contact surface.

Illustration of the JP-DX1 contact layer under mounting pressure.

Spread Under Mounting Pressure

Install the cooler evenly to help spread the paste across the interface.

  1. Prepare the surfaces.Follow the hardware maker’s cleaning guidance.
  2. Match the method to the hardware.Confirm the amount and application pattern for the specific cooler and processor.
  3. Mount as instructed.Use the hardware maker’s procedure and pressure requirements.

The 60 psi specification is a laboratory reference condition, not an instruction to apply that pressure to a processor.

Independent Review

26 Thermal Compounds Tested ↗

HWBOT · der8auer · March 24, 2013

Thermal Paste Roundup: First Round ↗

SFFReview · John Morrison · May 19, 2013

More when you need it.

Durability, pump-out & service life

Test duration, storage life and installed service life are different.

To assess pump-out or material movement, define the assembly, bond line, pressure, thermal cycles and inspection method. No permanent-performance, no-loss or fixed-year guarantee is established here.

NANO DIAMOND THERMAL GREASE DX1

  • Thermal Resistance (℃·cm²/W)
    0.05 @ 60 Psi
  • Thermal Conductivity (W/m·K)
    16 MAX
  • Specific Gravity (g/cm³)
    2.7
  • Viscosity (mPa·s)
    3,000,000
  • Color Appearance
    Gray
  • Model Number
    JP-DX1

JP-Dx1 is a cutting-edge thermally conductive compound designed to meet the rigorous demands of modern AI chips, semiconductors, and high-performance electronics. Made from high-purity thermal conducting materials, its nanoscale-treated molecular structure ensures superior thermal conductivity. Formulated with nanodiamond powder and silicone fluids, JP-Dx1 delivers exceptional heat dissipation for applications requiring advanced thermal management.

JunPus

Performance Starts with Superior Thermal Connectivity.For OEM/ODM products please go to JunPus International Co., Ltd.

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