Advanced Thermal Management Solutions for the Communication Industry
High-performance Liquid Cold Plates and Precision Heat Sinks engineered for the demanding thermal challenges of 5G Base Stations, Data Centers, and Next-Generation Optical Networks.
The Unseen Challenge: Managing Extreme Heat
The communications industry is evolving at an unprecedented pace. Higher data rates and the rapid rollout of 5G create immense thermal loads that can compromise system performance and lifespan.

5G Power Density
Massive MIMO technologies concentrate extreme heat in smaller footprints, demanding highly efficient localized cooling.

Data Center Demands
High-speed network switches (QSFP/OSFP modules) generate extreme heat, requiring zero-downtime cooling to prevent thermal throttling.

Harsh Outdoor Environments
Remote Radio Units (RRUs) must perform reliably in sealed enclosures under extreme ambient temperatures and weather conditions.

Zero-Leakage Requirement
Liquid cooling in telecom infrastructure demands absolute hermeticity to protect expensive electronic components from catastrophic failure.
Jindu’s Engineered Solutions for Telecom
Leveraging high thermal conductivity materials (up to 200 W/mK) and advanced manufacturing, we provide tailored cooling technologies to keep your communication systems running efficiently.
Liquid Cold Plates for High-Density Loads
The ultimate solution for components with extreme wattages. Our liquid cold plates utilize Friction Stir Welding (FSW) and Vacuum Brazing to deliver superior thermal performance.

Absolute Safety
100% air tightness tested (up to 10MPa) and validated with Helium leak detection to ensure zero leakage in critical telecom environments.

Precision Manufacturing
Engineered with ±0.005mm CNC machining tolerance for perfect contact with high-power processors and ASICs.

Custom Configurations
Tube, FSW, Extruded, and Brazed options tailored to your specific pressure drop and thermal resistance requirements.
High-Performance Heat Sinks for Robust Air Cooling
The proven standard for RF power amplifiers, baseband units, and edge computing, delivering maximum thermal dissipation in constrained spaces.

Advanced Fin Geometries
Utilizing skived fin (thickness down to 0.1mm), folded, and zipper fin technologies to achieve extremely high aspect ratios, maximizing heat dissipation area within tight 1U/2U telecom rack constraints.

Optimized Thermal Transfer
Crafted from premium 6061/6063 aluminum alloys and high-purity copper. We integrate embedded heat pipes or vapor chambers into the base to eliminate localized hot spots on high-power ASICs.

Corrosion Resistance for Harsh Environments
Engineered for outdoor deployment. We offer advanced surface treatments including anodizing, nickel plating, and anti-corrosion coatings to withstand high humidity, salt fog, and extreme ambient temperatures.
Critical Applications in the Communications Sector
Reliable thermal management is the backbone of modern telecommunications. From the top of cell towers to the core of data centers, Jindu’s precision-engineered cooling solutions prevent thermal throttling, extend component lifespan, and ensure uninterrupted signal transmission.
5G Base Stations (RRUs & BBUs)
Data Center Networking
Optical Communication Systems (DWDM)
Satellite & Microwave Communications
RF Power Amplifiers & Broadcast
Telecom Power Conversion Systems
Why Partner with Jindu Tech for Telecom Thermal Solutions?
Automotive-Grade Reliability (IATF 16949)
Zero-Leakage Assurance for Critical IT
Advanced Thermal Validation (CFD)
High-Precision Manufacturing for Tight Spaces
New Energy Thermal Manufacturing Capabilities
While we offer 100% customization, the following “Standard Configurations” help customers select the most cost-effective options quickly.
| Machining Tolerance | Up to ±0.005 mm (High-precision CNC) |
| Minimum Fin Thickness (Skiving) | 0.1 mm |
| Thermal Conductivity | Up to 200 W/mK (Materials dependent) |
| Leak Testing Standards | 100% Air Tightness (up to 10MPa), Helium Leak Detection |
| Surface Treatments | Hard Anodizing, Nickel Plating, Anti-corrosion Passivation (Salt-spray tested for outdoor RRUs) |
(Note: Standard models reduce lead time by utilizing stocked copper coil sizes.)
Our Automotive-Grade Customization Workflow
Requirement Analysis & CAD Review
CFD Thermal Simulation
Rapid Prototyping
Testing & Validation
Mass Production & Global Delivery
Frequently Asked Questions: Telecom Thermal Solutions
Leak prevention is our top priority. We utilize advanced Friction Stir Welding (FSW) and Vacuum Brazing to create defect-free, solid-state joints. Furthermore, every plate undergoes mandatory pressure retention testing (e.g., 1MPa) and Helium leak detection prior to shipping.
It depends on the power density. For extreme heat loads, sealed FSW liquid cold plates are optimal. For passive cooling, we recommend our custom skived fin heat sinks treated with specialized anti-corrosion coatings (like hard anodizing) to withstand harsh outdoor environments like salt fog and humidity.
Yes. High-speed transceivers require ultra-precise temperature control to maintain wavelength stability. We manufacture micro-channel liquid cold plates and ultra-thin skived heat sinks with exceptional flatness (±0.005mm) to ensure perfect thermal contact with optical modules.
Absolutely. Our in-house engineering team uses advanced CFD (Computational Fluid Dynamics) software to simulate airflow, pressure drop, and heat dissipation based on your specific telecom application, ensuring the design is optimized before manufacturing begins.
Through our highly controlled skiving process, we can achieve fin thicknesses as thin as 0.1mm with tight spacing. This dramatically increases the total surface area for heat dissipation, making it ideal for the extreme space constraints of 1U and 2U telecom enclosures.
For standard applications, high-purity aluminum alloys (6061/6063) offer an excellent balance of weight, cost, and thermal conductivity. For BBUs with extreme hot spots, we often incorporate copper bases or embed heat pipes/vapor chambers into the aluminum assembly to rapidly spread the heat.