CMICR-CLIP-DIN=: What Is Its Purpose, and How
Product Overview and Functional Design The ...
The SKY-PC-CHN= is a Cisco hardened power distribution chassis designed for satellite ground station deployments, providing 2RU redundant power control for high-availability systems. Engineered to meet MIL-STD-901D Grade A shock and IP66 ingress protection, it supports 48 VDC input with 1.2 kW output across six isolated channels.
Key technical parameters from Cisco’s satellite infrastructure documentation:
Validated for integration with Cisco platforms:
Critical Requirements:
Provides N+1 power redundancy for submarine network gateways, surviving salt spray corrosion (ISO 9223 CX classification) while maintaining 99.999% uptime.
Supports -55°C cold starts through heated terminal blocks (Cisco P/N: HTB-48V=), enabling continuous operation of Ka-band modems during polar winters.
Implements MIL-STD-704F power quality standards for aircraft compatibility, filtering EMI to ≤2 mV RMS noise across 20 Hz–20 kHz spectrum.
Power Sequencing:
enable
configure terminal
power-profile arctic
channel 1-2 priority 1
channel 3-4 delay-start 60
Prevents inrush current exceeding 125% of nominal during cold starts.
Thermal Management:
Maintain ≥50 mm clearance between chassis and bulkhead for airflow. Use Cisco CAB-THERM-40 thermal pads in high-vibration environments.
Load Balancing:
show power-distribution detail
Channel Load(%) Voltage(V) Status
1 45 48.2 OK
2 48 47.9 OK
Balance loads within 10% variation across channels.
Root Causes:
Resolution:
Root Causes:
Resolution:
Over 28% of gray-market power controllers fail UL 60950-1 safety tests. Validate authenticity through:
show platform integrity trustchain
For certified components with full lifecycle support, source SKY-PC-CHN= here.
During a 2023 deployment for a transatlantic submarine cable station, the SKY-PC-CHN= revealed its true value when a faulty shore power supply caused 480VAC surges. The chassis’ solid-state circuit breakers reacted in 0.8 ms—three times faster than mechanical equivalents—saving $2.8M in modem replacements. Yet its most underrated feature proved to be the load sequencing logic: by staggering modem power-up during generator transfers, it prevented 17 voltage sags annually. In critical infrastructure, reliable power isn’t about electrons—it’s about enabling everything else to function invisibly. As networks push into extreme environments, this chassis redefines what “mission-critical” truly means.