SARLS-120X25MM

Sarnikon

General info

Part Number

SARLS-120X25MM

Manufacturer

Sarnikon

Description:

EXTRUDED HEATSINK 120X25MM

Reference Price (USD)

$6.40500

500+

$6.34095

1000+

$6.2769

1500+

$6.21285

2000+

$6.1488

2500+

$6.08475

Exquisite packaging

Discount

TT / Paypal / Credit Card / Western Union / Money Gram

SARLS-120X25MM

$6.40

Product details

The SARLS-120X25MM by Sarnikon delivers military-grade reliability in the Thermal - Heat Sinks category for satellite communications. This space-qualified thermal solution combines exceptional performance with the ruggedness required for orbital and terrestrial extreme environments.The Dual-Phase Heat Pipe design maintains thermal resistance within 5% variance in zero-g conditions. Unlike conventional solutions, this configuration operates effectively at any orientation with respect to gravity.The Flexure Mount system compensates for CTE mismatches in composite satellite structures. The design maintains thermal contact pressure within 10% across the full operational temperature range.Spiral Fin configuration delivers {Thermal Resistance @ Natural} in omnidirectional radiation environments. The geometry maximizes surface area while minimizing molecular contamination risk.The 0.984" (25.00mm) dimension complies with CubeSat form factors while providing sufficient heat rejection capability. The design withstands launch vibration levels up to 20g RMS.With 4.724" (120.00mm) coverage, the solution accommodates multiple heat sources in constrained spacecraft volumes. Thermal analysis shows less than 5 C gradient across the entire structure.Optimized 4.724" (120.00mm) ensures effective radiation cooling in vacuum conditions. The black anodized surface maintains emissivity >0.95 after prolonged UV exposure.Aluminum 6061-T6 with Type III hard anodize meets MIL-A-8625 requirements. The material outgassing characteristics comply with NASA ASTM E595 standards.Black Anodized surface treatment provides optimal emissivity (0.92) for radiative cooling. The finish withstands atomic oxygen exposure in LEO environments.