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Converged Power

The whole power plant, in one cabinet

Rectifiers, solar MPPT, lithium, an inverter and the supervision unit, converged into a single engineered outdoor cabinet. Grid, sun, battery and genset arrive as inputs; what leaves is one disciplined bus and one stream of telemetry.

The solution

Four rules, engineered in

The converged system dispatches its sources by four documented rules. They are not software policy; they are how the plant is built.

Sun covers the load

When PV output covers the site, mains and battery disconnect and the MPPT modules carry the load alone.

Sun falls short

The genset connects, the rectifier modules carry the load and charge the battery at the same time.

🔋

Battery reaches full

At the upper SOC limit the generator shuts down and the battery covers the load on its own.

🔄

Battery runs low

At the lower SOC limit the generator returns, the rectifiers carry the load and the charge cycle begins again.

30–4000 A
DC power plant range
96%
Typical conversion efficiency
5.5–10 h
Design sunshine window
51.2 V
Lithium units in parallel expansion
20+
Countries with our infrastructure
24/7
NOC & customer support
Inside the cabinet

Anatomy of a FIBER OCEAN converged site

Eight layers, most of them behind one door. Every numbered element is a FIBER OCEAN line from the engineered bill of materials.

Anatomy of a FIBER OCEAN converged power site: open outdoor cabinet showing the supervision unit, converged rectifier and MPPT core, inverter modules and lithium battery shelf, with the door-mounted air conditioner, beside the solar array on galvanized brackets, the silent generator and the tower base, with numbered callouts matching the table below
LayerWhat we deployProduct line
1. The converged cabinetFO-ODC outdoor cabinets: insulated, galvanized shells with their own DC air conditioning, sized to hold the whole plantEnclosures & Outdoor Cabinets
2. The converged coreFO-HSDC converged cores: slot rows for rectifier and MPPT modules with a monitoring module, BLVD / LLVD distribution and surge protection, populated per siteDC Power Systems
3. The rectifier shelfFO-RM-4850 modules: 50 A / 3000 W each at 96% typical efficiency and ≥0.99 power factor at loadDC Power Systems
4. The solar inputFO-PVM MPPT modules at 96% efficiency, fed by high-efficiency A-level mono modules on galvanized brackets, strings set by the site tableSolar Systems
5. The lithium shelfFO-LB51.2 series lithium in parallel expansion: over 6000 cycles at 80% DOD, with the BMS watching every single cellBatteries
6. AC out of DCFO-INV inverter pairs in 1+1 redundancy lift 220 VAC off the bus for the site’s AC loads, capacity per siteDC Power Systems
7. The genset behindSite gensets sized from the engineering tables, filling in engineered cycles when sun and cells run outDiesel Generators
8. The nervous systemFO-FSU-1003: sensors to snapshots through 1000+ device protocols, three months of history on board, MTBF over 100,000 hoursRemote Monitoring
Site scenarios

Engineered per load, not per guess

The proposal behind this page sizes every site from a table: load in, module counts out.

The load ladder

Sized from the table

Load in, module counts out: the engineering matrix steps batteries, rectifiers, MPPTs and panel strings with the measured load, so every site gets its own configuration of the same platform.

Unattended by design

The site nobody visits

BMS to the single cell, hardware watchdog, self-diagnosis with automatic configuration backup: the cabinet is built to meet unattended requirements.

AC loads too

The AC island

The 1+1 inverter pair lifts 220 VAC off the DC bus, so the site’s AC equipment rides the same converged plant as the telecom load.

Fuel arithmetic

The nine-hour genset day

With the battery hours and genset fill cycles coming out of the engineering tables instead of habit, the genset runs a schedule, not the clock.

Why convergence wins

One cabinet, one accountable design

The details that make the converged site an engineering document, not an assembly of hopes.

A BOM, not a shopping list

Cabinet, core, modules, battery, inverter, brackets and FSU arrive as one engineered bill of materials, sized to the site’s measured load.

Dispatch as hardware

The four source rules live in the converged core with its BLVD / LLVD distribution and surge protection, not in a script someone maintains.

Solar done properly

A-level mono modules on hot-dip galvanized brackets with PV1-F wiring and MC4 connectors, strings engineered per array: specified to the connector.

🔋

Cells with a chaperone

The BMS watches every single cell’s voltage and temperature, with overcharge and over-discharge protection layered above 6000-cycle chemistry.

🏜

Weather inside the spec

An insulated, galvanized outdoor shell with its own DC air conditioning keeps the electronics in their comfort zone whatever the site does.

🗺

A witness that outlasts the site visit

The FSU holds three months of history on board, speaks 1000+ device protocols, and runs past 100,000 hours MTBF behind a hardware watchdog.

The rules at work

One converged day, rule by rule

Illustrative feed. The four rules are the documented working principle of the FO-HSDC converged system; the reporting is documented FSU and S3 capability, with 24/7 support behind the platform.

Bring us your site load

Measured load, sun hours and site constraints. Our engineers return the module counts from the table, a converged cabinet specification and a quotation.

Request a Solution Proposal