Solar Power for Oil & Gas Operations in Nigeria: Flow Stations, LACT Units, Pumping Stations & Remote Facilities
Your LACT unit doesn’t care that the generator broke down. Your SCADA system doesn’t care that diesel delivery is late. Solar doesn’t have these problems.
If you operate oil and gas infrastructure in the Niger Delta or anywhere in Nigeria, you know two things better than anyone: your operations are remote, and your power has to be reliable.
LACT units, flow stations, pumping stations, gathering stations, wellheads — they’re rarely near a grid connection. They’re down bush roads, across creeks, in locations where getting a diesel tanker through is an operation in itself. And yet these facilities need 24/7 power for metering, SCADA, control systems, safety instrumentation, cathodic protection, and communications.
The traditional answer has been diesel generators. Multiple generators, because redundancy isn’t optional when a power failure means inaccurate custody transfer readings, pipeline corrosion going undetected, or a safety system going blind.
But diesel in remote Niger Delta locations doesn’t cost ₦1,600 per litre. By the time you factor in transport to a location that’s only accessible by boat or unpaved bush road, security for the fuel in transit and on site, theft and adulteration, and the logistics of getting servicing crews to maintain generators in the middle of nowhere — your true cost per litre is often ₦2,500-₦4,000 or more.
And that’s before the generator breaks down and you’re scrambling to get parts to a site that takes 6 hours to reach.
Solar power isn’t new to the global oil and gas industry. Tens of thousands of solar-powered systems operate 24/7/365 at oil and gas facilities across the Americas and Middle East. LACT units running on solar power are standard practice in remote producing regions worldwide. Nigeria, sitting between 4° and 14° north of the equator with some of the best solar irradiance in the world, is an ideal location for this technology.
This page is for IOC and indigenous operator facility managers, procurement teams, and engineering departments who are evaluating solar as a primary or hybrid power solution for remote oil and gas infrastructure.
Why Oil & Gas Operations Are Perfect for Solar
The match between solar technology and remote oil and gas infrastructure is almost too perfect:
The loads are predictable and well-defined. SCADA systems, RTUs, metering equipment, communications, cathodic protection, and safety instrumentation draw consistent, known wattages 24/7. There are no surprise loads. This makes system design straightforward and reliable.
The locations have abundant sunshine. The Niger Delta, despite being humid, receives 4-5 hours of peak sunshine daily. Drier producing regions in the middle belt and north get 5-7 hours. Solar production is consistent year-round in Nigeria.
Remote locations make diesel expensive and unreliable. Every operational challenge of remote diesel supply — logistics, theft, adulteration, servicing — is eliminated by solar. Once installed, a solar system produces power from a fuel source that’s free, can’t be stolen, and doesn’t need a supply chain.
Reliability requirements are extreme. Oil and gas operators need systems that work without babysitting. Modern solar + LiFePO4 battery systems are designed for exactly this — no moving parts in the panels, solid-state batteries with no maintenance requirements, and inverters that operate autonomously for years.
Environmental and regulatory pressure is increasing. Operators face growing pressure to reduce gas flaring and carbon emissions. Solar-powered facilities contribute directly to ESG targets and can be part of regulatory compliance strategies. For companies seeking or maintaining ISO 14001 certification, eliminating diesel generators at remote sites is a tangible improvement.
Operating remote O&G facilities? Let’s discuss your power requirements →
Application 1: Solar-Powered LACT Units
LACT (Lease Automatic Custody Transfer) units are the “cash register” of oil production — they measure and verify the quantity and quality of crude as it passes from producer to pipeline. Accuracy is everything. A metering error costs real money at scale.
LACT units require power for flow meters, samplers, BS&W monitors, control panels (PLCs), SCADA communication, and prover loop operation. In standby mode, the power draw is relatively modest — typically 500W-2kW for the control and monitoring systems. During active batch transfers, pumps increase the load significantly, but these run intermittently.
Globally, solar-powered LACT units are already standard in remote producing regions. The control and monitoring systems run on solar + battery 24/7, with the batch transfer pumps either solar-powered (for smaller units) or driven by gas engines using scavenge gas where available.
For Nigerian operations, a typical LACT unit solar system includes:
- Solar array (sized for continuous monitoring load plus battery charging)
- Lithium battery bank (sized for 2-3 days of autonomy during worst-case weather)
- Hybrid charge controller and inverter system
- Weatherproof, tamper-resistant enclosure
- Surge protection and lightning arrestors (critical in the Niger Delta)
- Remote monitoring via cellular or satellite
Payback: Often under 12 months
The operational advantage goes beyond cost. A solar-powered LACT unit doesn’t go offline because a generator ran out of fuel. Your custody transfer records are continuous and auditable. Your SCADA data has no gaps. Your regulatory compliance is stronger.
Application 2: Flow Stations and Gathering Stations
Flow stations have larger power requirements — separation equipment, transfer pumps, control systems, safety instrumentation, fire and gas detection, lighting, and staff accommodation.
A typical flow station might run a 100-500KVA generator 24/7, consuming thousands of litres of diesel monthly. In remote Niger Delta locations, the fully-loaded cost of this diesel (including transportation by boat, security, and storage) can be staggering.
Solar + battery hybrid approach for flow stations:
Rather than replacing the generator entirely (flow station loads during active production can be very high), the strategy is typically:
Tier 1 — Full solar: Control systems, SCADA, safety instrumentation, communications, cathodic protection, standby lighting. These loads run 24/7 on solar + battery with zero generator dependency. If everything else fails, your safety systems and monitoring never go dark.
Tier 2 — Solar-supplemented: General lighting, accommodation, non-critical loads. Solar handles these during the day, batteries carry them at night, generator supplements if needed.
Tier 3 — Generator-dependent: Large rotating equipment, high-power pumps during active production. These stay on the generator but benefit from reduced overall generator runtime because Tier 1 and 2 loads are off the generator.
This tiered approach can reduce generator runtime by 40-60% and diesel consumption by a corresponding amount — while making your most critical systems (safety, monitoring, communications) completely independent of generator reliability.
Application 3: Pumping Stations and Pipeline Infrastructure
Pipeline cathodic protection, valve actuators, pipeline monitoring sensors, and communication repeaters are classic solar applications globally. These are distributed loads along pipeline routes where grid connection is impractical and generator maintenance is logistically challenging.
Solar-powered cathodic protection systems are particularly well-established — they’ve been deployed worldwide for decades. The power requirements are modest, and the consequence of failure (accelerated pipeline corrosion leading to leaks or ruptures) is severe.
For each pumping station or monitoring point:
- Solar array
- Battery bank
- Autonomous operation with remote monitoring
- Designed for 25+ year deployment life
Need solar power for a specific facility type? Tell us about the site and we’ll design a solution →
Why Lithium Batteries for Oil & Gas
Battery selection for oil and gas installations demands a higher standard than residential applications:
Safety. LiFePO4 (lithium iron phosphate) is the safest lithium chemistry available. It does not experience thermal runaway under normal conditions, does not catch fire or explode, and is approved for use in enclosed and occupied spaces. This matters enormously at a facility that handles hydrocarbons.
Cycle life. Oil and gas installations cycle batteries daily for years. LiFePO4 delivers 6,000+ cycles at 80% depth of discharge — that’s 15+ years of daily cycling. Lead-acid batteries in the same application would need replacing every 2-3 years, creating a logistics and waste problem at remote sites.
Temperature tolerance. Niger Delta temperatures and humidity are within the operating range of quality LiFePO4 batteries without requiring active cooling.
Zero maintenance. No water topping, no acid handling, no equalisation charging. Install them and they run. For a site that takes 6 hours to reach, zero maintenance is not a luxury — it’s a requirement.
We wrote an entire piece on what makes a good lithium battery — cell quality, BMS features, and what to verify before purchasing. For oil and gas applications, these factors are even more critical.
Procurement and Vendor Registration
We understand the procurement process for oil and gas operators in Nigeria. Lithium Battery Depot Ltd is:
- Registered with CAC
- Tax compliant
- OGISP/NUPRC vendor registered
- HSE, CSR, and Corporate Governance policies documented and available for contractor pre-qualification
- Capable of meeting contractor requirements for major operators
We can supply equipment-only for your in-house engineering team to install, or provide full turnkey solutions including site assessment, system design, procurement, installation, commissioning, and ongoing maintenance.
For large-scale procurement or framework agreements, contact us to discuss pricing structures and delivery timelines.
The Niger Delta Advantage
We’re based in Port Harcourt — the heart of Nigeria’s oil and gas industry. We’re not an Abuja company trying to serve the Niger Delta from 1,000km away. Our team is on ground, we understand the operating environment, and we can respond to site requirements with speed that a distant supplier can’t match.
When you need a site assessment at a flow station in Ogbia or a LACT unit in Abia, we’re hours away, not days.
Next Steps
Whether you’re looking to solarise a single LACT unit or an entire network of remote facilities, we’re ready to discuss your requirements.
- Share your facility profile — location, current power setup, critical loads, and operational requirements.
- We’ll provide an initial assessment — recommended system architecture, component specifications, and budget pricing.
- Detailed engineering proposal — full system design, site-specific considerations, and itemised quotation.
- Procurement and installation — on your timeline, to your standards.
📱 WhatsApp: +234-809-988-9885 (fastest response) 📧 Email: sales@lithiumbatteries.com.ng 🌐 Commercial enquiries: lithiumbatteries.com.ng/lp/commercial
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