Data Center IDC Power Distribution Safety UPS

Power Distribution Safety Monitoring for a Large Data Center

Deploying ESA electrical safety monitoring alarm devices, ESB electrical safety monitoring terminals, EST temperature sensors and ESX products to perform 7x24h online electrical safety monitoring of key scenarios including data center power distribution systems, UPS, rack PDU, and precision air conditioning, with real-time perception of leakage current, temperature and current anomalies, safeguarding power continuity and stable operation of IT equipment in the data center, and protecting cloud services and digital infrastructure safety.

INDUSTRY

Data Center

CUSTOMER

A Large Data Center Operator

CUSTOMER TYPE

Large Third-Party / Hyperscale Data Center

DEPLOYMENT

[TBD]

01 · BACKGROUND

Customer Background

Enterprise Type

A large data center operating enterprise, primarily engaged in third-party data center colocation services, cloud infrastructure services and CDN business. Its customers cover multiple industries including internet, finance, government affairs and manufacturing, imposing extremely stringent requirements on power continuity and SLA (Service Level Agreement), with typical availability targets above 99.99%.

Data Center Grade: Tier III/IV · Rack Count: [TBD]

Facility Scale

The data center includes key facilities such as main computer room, UPS battery room, distribution room, diesel generator room and precision air conditioning room, with a large number of racks and high single-rack power density (some high-density racks reaching 30kW+). The power distribution system adopts a 2N redundant architecture with dense distribution circuits and large fluctuations in power load.

Rack Count: [TBD] · Total Power Capacity: [TBD]

Industry Position

As national critical digital infrastructure, the data center must strictly comply with mandatory standards including GB 50174 Code for Design of Data Centers, GB/T 2887 General Specification for Computer Site, and TIA-942 Standard for Data Center Infrastructure. Indicators such as PUE, availability and energy efficiency are supervised by the Ministry of Industry and Information Technology and industry regulators.

Compliance Standards: GB 50174 / GB/T 2887 / TIA-942

02 · CHALLENGES

Business Challenges

01

Complex Power Distribution System with Dense Circuits

The data center adopts a 2N redundant power distribution architecture, involving multi-level distribution from utility power intake, UPS, column header cabinets to rack PDUs, with dense circuits and complex topology. Failure at any level may affect IT load power supply. Traditional manual inspection can hardly achieve high-frequency full coverage of all critical circuits.

02

Overheating Risks in UPS Batteries and Distribution Cabinets

UPS battery banks, distribution cabinet busbars, and circuit breaker contacts carry high current over long periods and are prone to localized overheating due to poor contact or aging, causing electrical fire or UPS failure risks. Without continuous online temperature monitoring, overheating hazards are difficult to detect in advance and may evolve into power interruption incidents.

03

Rack PDU Overload and Three-Phase Imbalance

High-density rack PDUs carry significant power and are prone to overload or three-phase imbalance caused by business fluctuations, affecting PDU lifespan and potentially triggering circuit protection to power off the rack. Existing DCIM systems have incomplete coverage of real-time current and temperature monitoring at terminal PDUs, unable to detect overload risks in advance.

04

Compliance Audit and SLA Evidence Collection Difficulties

Data center compliance audits and customer SLA assessments require complete, continuous and traceable power supply and electrical safety monitoring data. Paper records and discrete data cannot meet the compliance audit and customer SLA report requirements of standards such as GB 50174 and TIA-942.

03 · SOLUTION

Solution

System Architecture Diagram

System Architecture Diagram Placeholder - To be replaced with real architecture diagram

Note: The above is a placeholder image, to be replaced with a real system architecture diagram. The architecture diagram should show the three-layer structure: sensing layer (ESA/ESB/EST/ESX terminals) → network layer (FG smart gateway) → platform layer (FEXLINK Cloud).

Deployed Product List

Product Name Model Quantity Function
ESA Electrical Safety Monitoring Alarm DeviceESA[TBD]Deployed in UPS output distribution cabinets and column header cabinets, real-time monitoring of residual current, cable temperature, overload and other electrical safety parameters
ESB Electrical Safety Monitoring TerminalESB[TBD]Deployed in rack PDU and precision air conditioning distribution boxes, collecting multi-element data including leakage current, temperature, current and voltage
EST Temperature SensorEST[TBD]Attached to key heating points such as UPS battery poles, busbars, circuit breaker contacts and PDU sockets, achieving high-precision continuous temperature monitoring
ESX Electrical Safety Monitoring DeviceESX[TBD]Deployed in diesel generators and STS switching cabinets, comprehensively monitoring backup power electrical status and switching reliability
FG Smart GatewayFG[TBD]Aggregates data from ESA/ESB/EST/ESX terminals, performs edge processing, and uploads to the cloud platform via data center internal network
FEXLINK Cloud PlatformCloud 3.01 SetData aggregation, visualization, alarm push, O&M work orders, compliance report auto-generation, SLA report support

Note: Product quantities are TBD. Actual deployment quantities will be determined based on data center scale and monitoring point density, to be provided by the project implementation party.

Network Topology

Sensing Layer: ESA electrical safety monitoring alarm devices are deployed in UPS output distribution cabinets and column header cabinets; ESB electrical safety monitoring terminals are deployed in rack PDU and precision air conditioning distribution boxes; EST temperature sensors are attached to key heating points such as UPS battery poles / busbars / circuit breaker contacts / PDU sockets; ESX electrical safety monitoring devices are deployed in diesel generators and STS switching cabinets, achieving full-scenario electrical safety monitoring of the data center power distribution system.

Network Layer: Each sensing terminal connects to the nearest FG smart gateway via RS485 bus (Modbus-RTU protocol). FG gateways uplink to the DCIM O&M network via data center internal LAN / 4G cellular network, with key nodes supporting dual-link redundant backup to ensure data transmission reliability.

Platform Layer: Data aggregates to the FEXLINK Cloud platform (privately deployed in the data center O&M room), providing web and mobile visualization dashboards, real-time alarms, historical trend analysis, O&M work order dispatch, compliance report and SLA report auto-generation, multi-role permission management (O&M / facilities / customer service) and more.

Integration Layer: The cloud platform connects with existing data center DCIM, BMS (Building Management System), and dynamic environment monitoring systems via standard REST API / Modbus TCP / SNMP protocols, enabling data sharing and linked alarms, and incorporating them into the unified O&M work order workflow.

04 · IMPLEMENTATION

Implementation Process

1

Site Survey & Solution Design

Engineers visit the data center site to survey the 2N power distribution architecture, UPS circuits, column header cabinets, and rack PDU distribution, outputting a point list and system deployment plan.

Cycle: [TBD]

2

Equipment Installation & Wiring

ESA/ESB/ESX installed in each distribution cabinet and PDU, EST temperature sensors attached to key heating points, FG smart gateways centrally deployed, completing RS485 bus wiring and power connection. Construction is scheduled outside business peak hours to avoid disrupting IT load operation.

Cycle: [TBD]

3

System Commissioning & Platform Integration

Configure FG gateway acquisition parameters and upload cycle, complete FEXLINK Cloud platform account setup, point binding, alarm threshold setting, and integration debugging with existing DCIM/BMS/dynamic environment monitoring systems.

Cycle: [TBD]

4

Trial Operation & Personnel Training

System trial operation and data accuracy calibration, training of O&M, facilities and customer service personnel on platform operation, alarm handling, work order flow and SLA report export, completing project acceptance and delivery.

Cycle: [TBD]

05 · RESULTS

Application Effects

7×24h

All-Weather Online Monitoring

[TBD]

Monitoring Point Coverage Count

[TBD]

Reduced Manual Inspection Hours

[TBD]

Advance Hazard Warning Count

[TBD]

PDU Overload Avoidance Count

100%

Compliance & SLA Report Auto-Generation Rate

Customer Testimonial

"[TBD] The customer testimonial for this case will be added after customer confirmation. The testimonial will cover comparison of electrical hazard detection capability before and after system deployment, the value of PDU overload early warning, and improvements in SLA compliance audit efficiency."

— Customer Lead [TBD]

Get Similar Solution

If your data center has similar power distribution safety monitoring needs, please contact us for a customized solution. The FEXLINK technical team will provide an end-to-end IoT solution based on your data center grade, rack scale, and SLA requirements.