G1482-2000WNA – 2000W CRPS Power Supply Designed for POE, Networking, and Telecommunications Equipment

The G1482-2000WNA is a high-performance CRPS power supply designed specifically for POE switches, networking equipment, telecommunications, and AI applications. Its compact 1U CRPS-standard form factor (185 x 73.5 x 40 mm) ensures efficient space utilization in dense system environments. This unit delivers a main output of 54.5V at 36.7A alongside a 12V standby output at 3A. It supports a broad input voltage range of 90–264Vac / 180–300Vdc, making it compatible with global power standards. Featuring full digital control and PMBus 1.2 interface, the power supply provides advanced intelligent monitoring and remote management capabilities. Its platinum-level efficiency combined with active power factor correction (PFC) guarantees reliable, energy-efficient operation. Smart fan control optimizes thermal performance while minimizing noise, and the reverse airflow option offers flexible installation options tailored to diverse system configurations. Certified to meet UL, CE, FCC, CB, and other global safety and EMC standards, the G1482-2000WNA ensures dependable performance and compliance in demanding enterprise environments.

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): 2000
Length (mm): 185
Width (mm): 73.5
Height (mm): 40
Mounting Type: Hot pluggable
Minimum Output Current (A): 0
Maximum Output Current (A): 36.7
Output Voltage (V): 54.5
Minimum Output Power (W): 0
Maximum Output Power (W): 2000
Minimum Input Voltage (V): 90
Maximum Input Voltage (V): 264

Model Selection Comparison Table

Model

Power Tier Behavior Input Form Factor Recommended Use
G1482-0600WNA Entry High-Capacity Compute + Cache Blend AC/DC 54.5V CRPS-185

Edge storage + SD-WAN

G1482-0920WNA

Mid More burst + drive pools AC/DC 54.5V CRPS-185 Heavier cache, multi-radio
G1482-1300WNA High Dense storage + inference AC/DC 54.5V CRPS-185

POP cloud clusters

G1482-1600WNA

Peak High-end compute & routing AC/DC 54.5V CRPS-185 AI + multi-tenant edge
G1482-2000WNA Extreme Maximum power envelope AC/DC 54.5V CRPS-185

Heavy POP / DC rollout

Deployment Scenarios

The G1482-2000WNA is the extreme output tier of the G1482 platform, built for metro aggregation, multi-tenant SD-WAN/SASE, large inference pods, high-density surveillance clusters, and POP-level storage compute nodes operating under persistent duty cycles. It enables fully converged architectures where routing + DPI + NVMe write caching + AI execution + PoE load may overlap for hours without compromising voltage stability. This watt class supports cloud edge presence, 5G backhaul routing, multi-uplink chaining, high-channel VMS, and container fleet elasticity, extending lifecycle viability when large deployment growth is expected.

 

Scenario

Concurrent Behavior Why 2000W Tier Matters
Telecom POP hub Constant encryption + routing

Prevents brownout under heavy concurrency

High-density surveillance

Wide PoE spread Stable during peak access surges
AI edge cluster Model rotation/inference

Sustains compute bursts without throttling

Hybrid cloud pods

VM + storage + network Single PSU supports full-service convergence
Metro network core 24/7 heavy load

Operates reliably in operator environments

RAID-heavy NVMe nodes

Flush + rebuild

Keeps storage responsive at max duty

Power Architecture & Reliability Design

The G1482-2000WNA extends the reinforced 54.5V-to-12V power conversion architecture to its highest capacity, enabling sustained high-amperage operation with precise rail control. It is engineered to remain electrically stable during demanding conditions such as multi-array flush peaks, high-volume video ingest, multi-radio signaling, and deep packet inspection under constant traffic pressure.

 

Power stage layout and regulation strategy are designed to preserve voltage integrity when multiple service layers operate concurrently, including encryption, storage rebuilds, inference scheduling, and routing workloads. Tight ripple control protects NICs, storage controllers, and accelerator devices from instability during peak concurrency, supporting predictable behavior in dense edge and aggregation platforms.

 

Thermal routing and component placement prioritize reliability in environments with non-ideal airflow, elevated ambient temperatures, or dust exposure, such as outdoor POP shelters, remote utility cabinets, co-location edge sites, and carrier networking backbones. The PSU also supports controlled power cycling and safe inrush behavior, enabling synchronized cluster boot and redundant power architectures. With PMBus-based operational insight where configured, the G1482-2000WNA is optimized for long-cycle, carrier-grade deployments that demand continuous uptime and fleet-level predictability.

Power Operating Notes

Reference Condition

Suggested Guidance
24/7 metro deployment

Keep airflow path unobstructed

Dense storage RAID sets

Monitor sustained thermal rise
Surveillance/hybrid PoE

Allow current surge headroom

Multi-tenant virtualization

Maintain <75–80% avg load
Cabinet/constrained rack

Clean intake extends service life

Distributed POP rollout

Standardize this series for fleets
Inference clustering

Ensure burst-margin sizing

Lifecycle planning

Use PMBus telemetry for alerts

FAQ

Q1. Best use cases?
Large telecom POPs, AI-plus-routing clusters, heavy storage + DPI systems.

 

Q2. Suitable for continuous duty?
Yes — engineered for operator-grade 24/7 always-on runtime.

 

Q3. Advantage vs 1600W?
Provides future capacity for scaling nodes without PSU swap.

 

Q4. Burst stability?
Maintains tight ripple control even at simultaneous workload peaks.

 

Q5. Fit for multi-uplink chain nodes?
Ideal — large transient margin for 100G+ aggregation.

 

Q6. Inferencing + traffic stacking?
Designed for compute + security + storage concurrency.

 

Q7. Harsh deployment environments?
Thermal + dust-tolerant structure works in remote POP shelters.

 

Q8. When is this the right starting point?
When building for multi-year expansion and full-service convergence.

 

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