Tier-1 EVSE Infrastructure Architecture

OEM Split-Type Charging Pile Factory & Suppliers Serving The Sri Lanka Market

Empowering Commercial Megawatt Hubs, Public Fleets, and Depots with Scalable 360kW–720kW Ultra-Fast Distributed Charging Matrix Architecture Engineered for South Asia's Climate Realities.

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Territorial Landscape & Grid Logistics

Sri Lanka EV Transition: Overcoming Energy Realities

Decarbonizing logistics, passenger transport, and commercial fleets along the Colombo-Katunayake expressway and port economic corridors.

Mitigating Peak Fuel Volatility

Sri Lanka’s macroeconomic reliance on imported fossil fuels has triggered urgent governmental policy shifts targeting 100% electrified public transport and commercial fleets by 2040. Adopting large-scale split-type charging topologies enables private CPOs and government transport boards (SLTB) to scale megawatt charging while retaining strict operational efficiency.

Minimizes reliance on refined diesel corridors across the Western and Southern provinces.

Ceylon Electricity Board (CEB) Grid Adaptation

The island's medium-voltage distribution network often faces voltage fluctuations and regional load bottlenecks. Traditional integrated dual-gun DC chargers draw sudden high-peak kVA loads, tripping local substations. A split-type system distributes power dynamically, managing surge ramps and protecting regional substation assets.

Harmonic distortion ≤ 5% ensures minimal disturbance to primary transformer feedlines.

Equatorial Maritime Durability

With humidity reaching 90% and intense airborne salt spray along maritime zones like Galle, Hambantota, and Colombo Port City, standard charging piles suffer PCB corrosion within 18 months. Our OEM split-type designs isolate the power electronics inside an IP55-rated, heat-exchanger-cooled central cabinet, leaving compact IP54 dispensers outdoors.

C5-M marine-grade anti-corrosion powder coating guarantees over 10 years of structural integrity.
Industrial Architecture

Distributed Split Matrix Architecture vs. Integrated DC Charging

Understanding why utility-scale charging sites in South Asia migrate from monobloc chargers to dynamic power pooling power cabinets.

The Dynamic Matrix Power Stacking Topology

In standard monolithic DC chargers, power modules are locked directly behind two dispensers. If an electric vehicle requires only 60kW at a 180kW station, the remaining 120kW is held hostage. Split-type configurations aggregate 20kW or 30kW high-efficiency AC/DC rectifiers into a single central control core (e.g., 360kW up to 720kW).

Using high-speed programmable logic controllers (PLCs) and a contactor matrix, the cabinet shifts discrete 20kW/30kW blocks on-demand to individual satellite terminals. A logistics van drawing 60kW, an intercity bus requesting 240kW, and a passenger vehicle taking 90kW are all served simultaneously without wasting energy capacity.

Achieves 96.5% overall system efficiency across 200V–1000V wide battery voltage architectures.

Minimized Footprint in Congested Prime Zones

Colombo commercial centers, expressway rest hubs, and bus terminals often lack the physical clearance for bulky individual all-in-one charging cabinets at each bay. The split-type layout shifts the heavy, noisy power generation core up to 100 meters away into a secure utility room or peripheral substation perimeter.

At the parking bay, only ultra-compact, user-friendly dispenser terminals are installed. These terminals contain no heavy magnetic parts, operate silently, provide liquid-cooled or air-cooled CCS2 charging cables, and deliver an elevated user experience via integrated touchscreens and POS integration.

Terminal footprint is reduced by 70%, drastically slashing civil engineering and civil works expenditure.
96.5% Peak Rectifier Efficiency
12 Guns Simultaneous Dynamic Output
1000V High-Voltage Platform Native
<50ms Dynamic Matrix Relocation Speed
Application Frameworks

Targeted Deployment Scenarios Across Sri Lanka

Tailored high-power EVSE implementations designed to fit specific geographic, commercial, and operational constraints.

E01 / E02 Expressway Corridors

The Southern Expressway connects Colombo to Matara and Hambantota, representing Sri Lanka’s most critical commercial transit artery. Deploying 480kW split systems at rest plazas allows fast top-ups for cross-island travelers. 8 bays can be powered concurrently, keeping turnaround under 20 minutes.

Port City & Logistics Hubs

The Port of Colombo and industrial export zones in Katunayake and Biyagama utilize light commercial trucks and inland drayage vans. Split charging units provide overnight and turnaround depot charging, matching current requirements without over-stressing transformer infrastructure.

Luxury Tourism & Hotel Chains

High-end eco-resorts in Kandy, Bentota, and Galle require discreet, noiseless EV charging systems. The central power core sits hundreds of meters away, allowing hotel guests to charge without humming noise while the hotel gains high-end brand equity.

E-E-A-T Reliability & Compliance

Stringent International Standards with Localized Protection

Built under strict ISO 9001 quality management, fully compatible with Sri Lankan CEB/LECO utility interconnection regulations.

Certified Electrical Isolation & Safety Stack

Our split-type chargers feature Class B surge protection (SPD), residual direct-current detecting devices (RDC-DD), insulation resistance monitoring (≥500V DC / ≥1000V DC), over-temperature monitoring at terminal connector contact pins, and automated phase imbalance mitigation. Systems maintain strict compliance with IEC 61851-1, IEC 61851-23, and IEC 62196-3 standards.

Open Charge Point Protocol (OCPP) 1.6J & 2.0.1

Seamless backend integration with existing CPO platforms in South Asia. Stations include 4G LTE modems with dual-SIM auto-failover, ethernet interfaces, and complete compatibility with regional payment systems, RFID reader validation, dynamic pricing APIs, and remote telemetry fault isolation.

Accelerate Your Commercial EV Hub in Sri Lanka

Connect directly with our engineering factory to obtain customized split-type architectural layouts, single-line diagrams (SLD), and OEM pricing models.

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Technology Evolution

The Future: Solar-Storage-Charging Microgrids

How Sri Lankan commercial hubs can leverage renewable resources to bypass distribution transformer limits.

Direct DC Microgrid Coupling

Sri Lanka receives abundant year-round solar irradiance (5.5–6.0 kWh/m²/day). Our forward-looking split matrices incorporate direct DC bus integration ports. Instead of converting PV energy DC to AC and back to DC inside the vehicle, power flows directly from rooftop solar arrays to the charging battery via DC-DC converters, eliminating multi-stage conversion losses.

LFP Energy Storage Integration

To eliminate demand-charge penalties from local distribution utilities, our central power cabinets integrate seamlessly with 100kWh–500kWh stationary lithium iron phosphate (LiFePO4) storage units. The batteries recharge during low-cost overnight periods and discharge into high-demand fleets during afternoon peak tariff windows.

Megawatt Charging System (MCS) Ready

Heavy commercial logistics, shipping container terminal movers, and port tractors will require high-speed megawatt charging interfaces. The modular architecture of our 720kW split cabinet allows parallel interconnectivity, enabling future upgrades to deliver >1000A charging sessions without tearing out installed power delivery conduits.

Information Clarification

Frequently Asked Technical Questions

In-depth answers for engineers, infrastructure investors, and procurement teams evaluating our split charging piles for Sri Lankan projects.

Why choose split-type charging over integrated chargers for Sri Lanka?
Split-type systems offer two distinct advantages for the Sri Lankan market. First, they allow dynamic power routing across 8 to 12 charging terminals from a centralized 360kW–720kW power core, maximizing energy utilization even when vehicles have differing battery intake curves. Second, the sensitive AC/DC power rectifiers remain sheltered in an environmental-controlled, IP55 enclosure away from harsh coastal air, while slender, ruggedized satellite dispensers handle user interaction at the parking stalls.
Are these chargers compliant with Ceylon Electricity Board (CEB) and LECO grid codes?
Yes. Our hardware is manufactured to meet strict international standards (IEC 61851 and IEC 62196) and incorporates advanced input power factor correction (≥ 0.99 at nominal load) with Total Harmonic Current Distortion (THDi) regulated below 5%. This prevents harmonic injection into local medium-voltage distribution systems, matching CEB grid interconnection guidelines.
How does the dynamic power allocation work in real operating conditions?
The central power cabinet organizes its internal rectifiers into 20kW or 30kW granular modules connected to an internal switching contactor matrix. When an electric bus plugs in requesting 180kW, the central controller instantly assigns 6 modules to that terminal. If a passenger car plugs in next to it requesting 60kW, the controller routes 2 modules to the second terminal, keeping unallocated power available for subsequent vehicles.
What customizations and OEM branding services do you supply for CPO operators?
We provide full-spectrum OEM and ODM customization. This includes custom structural sheet-metal designs, exterior colors, bespoke corporate vinyl branding, tailored user interfaces on the 7-inch or 10-inch LCD touchscreens, customized cable management counterweights, integration of specific local payment devices (credit card terminals, QR payment decoders), and direct testing against private cloud OCPP servers.
How does the hardware tolerate Sri Lanka’s high humidity and coastal salinity?
The internal electronic boards and circuit traces receive a triple-pass conformal coating protecting against electrolytic moisture paths and salt bridges. The power cabinet housing is constructed from heavy galvanized sheet steel with an electrostatically applied epoxy primer and C5-M certified exterior powder topcoat. Critical air paths employ labyrinthine moisture-separation filters to keep interior subassemblies dry.
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