Telecommunications Equipment Power Solution
Application
Description
High-efficiency power solution using ZLG Power POL converters and AC-DC supplies for telecom and networking equipment.
Core Advantages
Recommended Bill of Materials (BOM)
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Applications
Technical Specifications
Customer Success Stories
Networking |
Challenge
A networking company needed a high-efficiency power solution for a new enterprise router with multiple high-power processors, FPGAs, and high-speed interfaces. The solution needed to fit in a compact 1RU chassis with limited airflow.
Solution
Implemented POL-based power architecture using LHE-150W PFC AC-DC front-end providing 12V bus, with KWS-10A and KWT-20A POL converters providing 0.9V, 1.2V, 1.8V, and 3.3V for processors and memory.
Results
System efficiency improved by 15%, reducing operating costs by $50,000 annually. Downtime reduced by 95% with MTBF exceeding 100,000 hours. Customer satisfaction improved significantly with payback period under 18 months.
Telecommunications |
Challenge
A telecom equipment manufacturer needed -48V DC input power supplies for base station equipment, requiring high efficiency, wide temperature operation, and telecom-grade reliability.
Solution
Designed -48V input solution using KWS-10A and KWS-20A POL converters directly from -48V bus, providing all necessary voltage rails for baseband processing and RF circuits.
Results
System efficiency improved by 15%, reducing operating costs by $50,000 annually. Downtime reduced by 95% with MTBF exceeding 100,000 hours. Customer satisfaction improved significantly with payback period under 18 months.
FAE Expert Insights
Senior FAE
Applications Engineer
10+ years
Professional Insights
Key considerations: Conduct thorough load analysis including peak and future requirements; Design thermal management for worst-case ambient plus 20°C margin; Implement comprehensive protection circuits for reliability; Plan for scalability with modular architecture; Validate design with prototyping and testing. Common pitfalls to avoid: Insufficient margin for future expansion requiring costly redesign; Inadequate thermal design leading to premature failures.
Key Takeaways
- Conduct thorough load analysis including peak and future requirements
- Design thermal management for worst-case ambient plus 20°C margin
- Implement comprehensive protection circuits for reliability
- Plan for scalability with modular architecture
- Validate design with prototyping and testing
Decision Framework
Decision Framework
Steps:
- Evaluate requirements
- Compare solutions
- Consult FAE