G1483-0600WNA – 600W CRPS Power Supply for AI, PoE Networking, and Edge Applications

The G1483-0600WNA power supply is engineered for high-efficiency power delivery in PoE switches, networking gear, telecom infrastructure, and AI-driven systems. Its 1U CRPS-standard form factor (185 x 73.5 x 40 mm) enables seamless integration into dense or space-constrained environments. This high-performance AC/DC module provides a main output of 54.5V at 11A and a 12V standby output at 3A. A broad input voltage range of 90–264Vac / 180–300Vdc ensures reliable operation across a wide variety of global power conditions. Featuring full digital control with a PMBus 1.2 interface, the unit supports advanced power telemetry, real-time monitoring, and remote system management. It meets platinum-level efficiency targets while leveraging active power factor correction (PFC) for reduced power loss and enhanced stability. Smart fan control technology optimizes cooling based on system demands, reducing acoustic noise and extending product longevity. The inclusion of a reverse airflow configuration allows for thermal design flexibility. Certified to meet international safety and EMC compliance standards including UL, CE, FCC, CB, and others, the G1483-0600WNA is ideal for next-gen networking, AI edge deployments, and telecom platforms requiring robust, scalable power solutions.

Features

CRPS-185: 185×73.5x40mm(LxWxH)

CRPS-265: 265×73.5x40mm(LxWxH)

3A Max standby output current

Voltage Tolerance : 54.5Vdc ±3%(52.8-56.1Vdc)

Hot-plug

Full Digital control

Active Power Factor Correction

Intelligent-thermal Fan Control

N+1 Redundant

Reverse Airflow Option

Applications

POE Switch

Networking

Telecom

Artificial Intelligence

Router System

AI Data Centers

5G Base Stations

IoT Gateways

Approvals

UL/CUL

CB

TUV/Mark

CCC/CQC

FCC

CE

Specifications

Output Power (W): 600
Length (mm): 185
Width (mm): 73.5
Height (mm): 40
Mounting Type: Hot pluggable
Minimum Output Current (A): 0
Maximum Output Current (A): 11
Output Voltage (V): 54.5
Minimum Output Power (W): 0
Maximum Output Power (W): 600
Minimum Input Voltage (V): 90
Maximum Input Voltage (V): 264

Model Selection Comparison Table

Model

Power Tier Behavior Input Form Factor Recommended Use
G1483-0250WNA Entry Access & IoT workloads AC/DC 54.5V CRPS-185

PoE edge, SD-WAN, microcell

G1483-0350WNA

Mid More cache/storage headroom AC/DC 54.5V CRPS-185 Busy gateways & NAS-lite

G1483-0600WNA

High Heavy routing/PoE loads AC/DC 54.5V CRPS-185

Multi-service clusters

Deployment Scenarios

The G1483-0600WNA represents the peak performance tier within the G1483 lineup, designed for high-density PoE distribution, large SD-WAN clusters, SASE gateways, surveillance aggregation systems, storage-capable edge servers, and sustained 54.5V telecom workloads. This model handles continuous encryption throughput, multiple NIC uplinks, SSD cache events, and multi-radio access loads with headroom for latency-sensitive activities such as inference, DPI inspection, and VPN acceleration. It is the correct choice when 250W/350W units approach saturation, or when deployment planning includes future expansion, high PoE draw, multi-tenant routing, or stronger packet concurrency under uptime-critical conditions.

 

Scenario

Workload Behavior Why 600W Tier Is Required
SASE/SD-WAN pop Heavy routing + encryption

Handles sustained VPN/DPI sessions

High-PoE access layer

Large AP/camera sets Higher current stability margin
Telecom aggregation node Traffic and session density

Prevents performance droop

Edge storage server

NVMe caching & flush Ripple-controlled under writes
Micro-edge cloud Multi-tenant workloads

Supports scaling without PSU swap

Citywide surveillance High channel count Stable long-duration output

 

Power Architecture & Reliability Design

The G1483-0600WNA employs a reinforced 54.5V-to-12V DC power conversion stage engineered for high sustained utilization, supporting full PoE load envelopes, bursty encryption cycles, and concurrent compute activity. It is designed for access-layer and aggregation environments where power demand remains elevated and load transitions occur frequently across networking, security, and edge compute functions.

 

Electrical regulation maintains tight ripple characteristics even under peak draw, enabling reliable operation during multi-uplink routing, busy storage epochs, packet ingestion spikes, and intermittent inference execution. Stable rail behavior protects NICs, storage controllers, and inspection engines when multiple services overlap, making the unit suitable for SD-WAN, SASE, and deep packet inspection platforms operating under real-world traffic pressure.

 

Thermal architecture is optimized for wall-mounted telecom cabinets, outdoor POP shelters, and access-layer aggregation nodes where airflow is often directional rather than abundant. Component selection emphasizes signal stability, DC-bus tolerance, and predictable end-of-life behavior, supporting long deployment cycles with minimal intervention. With PMBus compatibility (series dependent) and controlled inrush characteristics, the G1483-0600WNA delivers reliable high-duty performance for distributed telecom infrastructure focused on uptime and lifecycle efficiency.

Power Operating Notes

Reference Condition

Suggested Guidance
Dense PoE access layer

Maintain overhead for channel peaks

SD-WAN + SASE cluster

Monitor thermal load under DPI
Surveillance aggregation

Ensure intake airflow stability

NVMe cache servers

Check sustained write heat
Metro telecom racks

Dust-free environment extends MTBF

Multi-tenant edge apps

Keep running load <80% for growth
Cabinet deployment

Directional airflow recommended

Lifecycle assurance

Use PMBus metrics for planning

FAQ

Q1. Where does 600W deliver the most value?
High-density PoE, SD-WAN, surveillance, telecom POP, and micro-cloud edges.

 

Q2. Can it run 24/7 under heavy throughput?
Yes — architecture designed for long-term continuous telecom duty.

 

Q3. Upgrade benefit vs 350W?
Substantial headroom for large PoE footprints and DPI routing.

 

Q4. Storage use case?
Handles cache+compute workloads with ripple tolerance.

 

Q5. Suitable for multi-uplink aggregation?
Yes — robust for 100G link or multi-WAN load patterns.

 

Q6. How does it behave under firmware push storms?
Stable output during packet ingest and update concurrency.

 

Q7. Best deployment environment?
Telecom POPs, outdoor cabinets, metro surveillance networks.

 

Q8. When to move beyond this tier?
Only if workload escalates to GPU inference or HPC-level draw.

 

 

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