Commercial Solar Power in Ghana: Lessons from Total’s Solar-Powered Service Station

Commercial solar power in Ghana is becoming an increasingly important solution for businesses looking to reduce electricity costs and improve energy reliability

Ghana’s transition to renewable energy continues to gain momentum as more businesses explore solar power as a practical solution for reducing electricity costs, improving energy reliability, and supporting environmental sustainability.

A major milestone in this direction was achieved when Total Ghana Limited commissioned its first solar-powered service station in Ghana at the Tema Main Harbour. The 35-kilowatt solar installation represents an important step for the petroleum retail sector and demonstrates how commercial solar power can be integrated into everyday business operations.

Total Ghana’s First Solar-Powered Service Station

The solar-powered service station at Tema Main Harbour is fitted with a 35kW solar energy system. The installation covers a total solar panel area of 225 square metres, with 165 square metres installed on the station’s shop and restaurant building and another 60 square metres mounted on the pump island canopy.

The station’s energy system combines solar panels, inverters, batteries, a generator, and the national grid. This hybrid energy architecture is particularly important for businesses in Ghana, where power reliability and rising energy costs remain key concerns.

By combining solar power with battery storage and backup generation, service stations and other commercial facilities can reduce their dependence on the national grid while maintaining operational continuity.

A New Direction for Commercial Solar in Ghana

According to Total Ghana’s Managing Director, Eric Fanchini, the company aims to solarize at least 50% of its network of 250 service stations within five years. This is a bold and forward-looking target that reflects the growing importance of solar energy in Ghana’s commercial sector.

For businesses, this move sends a clear message: solar power is no longer just an alternative energy source. It is becoming a mainstream business strategy.

Fuel stations, supermarkets, cold stores, hospitals, schools, factories, hotels, restaurants, and office complexes can all benefit from commercial solar installations. With the right system design, businesses can reduce electricity bills, protect themselves from power interruptions, and improve their environmental credentials.

Why Solar Power Makes Sense for Service Stations

Service stations consume electricity throughout the day and night. Their operations often include fuel pumps, lighting, refrigeration, security systems, restaurants, shops, offices, air compressors, and electronic payment systems.

This makes them ideal candidates for solar power.

A well-designed solar energy system can help service stations:

  • Reduce monthly electricity costs
  • Improve energy reliability
  • Support 24-hour operations
  • Lower diesel generator usage
  • Reduce carbon emissions
  • Improve brand reputation
  • Protect operations from rising utility tariffs

In Ghana’s competitive fuel retail market, solar energy can also become a strong brand differentiator. Customers increasingly associate businesses that invest in clean energy with innovation, responsibility, and long-term thinking.                                             Total Ghana’s investment shows how commercial solar power in Ghana can help fuel stations and other businesses reduce dependence on the national grid

Government Support for Renewable Energy in Ghana

The commissioning of Total Ghana’s solar-powered service station also aligns with Ghana’s broader renewable energy agenda.

At the event, Dr. Mohammed Amin Adam, Deputy Minister of Energy, commended Total for taking advantage of Ghana’s abundant renewable energy opportunities. He noted that the Ministry of Energy had started implementing the Scaling-Up Renewable Energy Program, aimed at expanding access to solar and other renewable energy systems across the country.

The programme includes plans for mini-grids, standalone solar home systems, and solar-with-storage systems for homes and small and medium-sized enterprises.

The Ministry of Energy is also working to promote solar power in public buildings and facilities. This is expected to reduce pressure on the national grid, cut energy costs, and improve the financial health of utility companies.

Solar Energy for Public and Private Institutions

The government’s plan to install solar systems on public buildings is a strong signal to the private sector. If ministries, public agencies, and state institutions are moving toward solar energy, then private businesses should also begin planning their transition.

Commercial solar energy is especially useful for institutions with high daytime electricity consumption. These include:

  • Government buildings
  • Schools and universities
  • Hospitals and clinics
  • Warehouses
  • Manufacturing plants
  • Shopping centres
  • Banks
  • Hotels
  • Petrol stations
  • Restaurants
  • Agribusiness facilities

For many of these institutions, solar power can provide immediate savings and long-term energy security.

The Role of Solar Companies in Ghana’s Energy Future

As more companies follow the example set by Total Ghana, the demand for experienced solar energy companies in Ghana will continue to grow. However, successful solar projects require more than just installing panels on a roof.

A proper commercial solar project requires:

  • Energy audits
  • Load assessment
  • Solar system design
  • Battery storage planning
  • Inverter selection
  • Safety protection systems
  • Professional installation
  • Monitoring and maintenance
  • Long-term technical support

This is where experienced solar companies such as Nocheski Solar play a critical role. Businesses need partners who understand Ghana’s energy environment, commercial power needs, battery backup requirements, and the importance of reliable system performance.

Why Businesses in Ghana Should Invest in Solar Now

Electricity costs remain a major expense for many Ghanaian businesses. At the same time, the cost of solar technology has become more competitive over the years. This makes now an excellent time for businesses to consider solar energy as part of their long-term cost reduction strategy.

Solar power is not just about saving money. It is also about energy independence, business continuity, sustainability, and future-proofing operations.

Companies that invest in solar today position themselves ahead of competitors who continue to rely entirely on the grid and diesel generators.

Nocheski Solar commercial solar installation in Ghana

Nocheski Solar provides commercial solar power solutions for businesses and institutions across Ghana

Conclusion

Total Ghana’s first solar-powered service station at Tema Main Harbour is more than a corporate milestone. It is a strong example of how businesses in Ghana can use solar energy to reduce costs, improve reliability, and contribute to national renewable energy goals.

As Ghana continues to promote clean energy and sustainable development, commercial solar power will become an increasingly important part of the country’s business landscape.

For fuel stations, factories, schools, hospitals, offices, hotels, and SMEs, the message is clear: solar energy is no longer a future option. It is a present-day business advantage.

As electricity costs continue to rise, commercial solar power in Ghana offers businesses a practical path to lower costs, cleaner energy, and long-term energy security

Businesses that want to reduce their electricity bills, improve energy security, and adopt cleaner power should begin with a professional solar assessment.

Nocheski Solar provides reliable commercial solar solutions for businesses and institutions across Ghana. From system design to installation and long-term support, Nocheski Solar helps organisations take control of their energy future.


The Dawn of Smart Power in Africa

For decades, Africa’s energy landscape has been dominated by centralized fossil-fuel plants feeding aging transmission lines that struggle to meet modern demands. Blackouts, high costs, and limited access have defined much of the continent’s power experience.

But that narrative is shifting.

A bold transformation — Grid 2.0 — is underway. Across Africa, digital intelligence, energy storage, and green hydrogen are converging to create smarter, cleaner, and more resilient power systems. This is more than an upgrade; it’s a reinvention of how energy is generated, distributed, and consumed.

At its core, Grid 2.0 represents Africa’s leap from outdated infrastructure to a renewable, data-driven energy future.


1. Africa’s Energy Challenge

Despite being home to some of the world’s richest renewable resources, over 600 million Africans still lack access to reliable electricity. Those connected often face unstable supply and high tariffs.

Key pain points include:

  • Aging infrastructure: More than 60% of power transmission assets are over 25 years old.

  • Energy losses: Transmission losses average around 20%, double the global average.

  • Rising demand: Power needs are projected to triple by 2040 due to rapid industrialization and population growth.

The takeaway is clear — Africa cannot power its future using 20th-century grids. The continent must design a smarter, interconnected system capable of integrating large shares of renewables while maintaining stability.


2. Energy Storage — The Missing Link

Solar and wind energy are abundant but intermittent. Battery Energy Storage Systems (BESS) are the crucial bridge between renewable potential and grid reliability.

Why Storage Matters

  • Stabilizes supply: Captures excess solar or wind energy for use during nighttime or cloudy periods.

  • Reduces blackouts: Supports grid stability and frequency control.

  • Empowers communities: Enables microgrids and rural electrification projects to operate autonomously.

Momentum Across the Continent

  • South Africa leads with large-scale hybrid solar-storage installations under Eskom’s REIPPPP initiative.

  • Egypt’s Benban Solar Park integrates storage for consistent power dispatch.

  • Ghana, Kenya, and Nigeria are exploring storage systems for industrial and distribution-level resilience.

By 2030, Africa could surpass 30 GWh of installed storage capacity, making it the fastest-growing energy storage market in the world.

At Nocheski Solar, we see battery storage not just as a component — but as the heartbeat of Africa’s next-generation grid.


3. When Power Meets Intelligence — Smart Grids

Traditional grids assumed steady demand and centralized generation. Smart grids flip that logic, combining AI, IoT, and big data to create networks that learn, adapt, and self-correct.

The Smart Grid Advantage

  • AI-driven forecasting: Predicts demand and renewable output in real time.

  • IoT monitoring: Detects and isolates faults instantly to prevent cascading failures.

  • Blockchain integration: Enables transparent, peer-to-peer energy trading.

  • Digital twins: Model grid performance for predictive maintenance.

African Innovations

Smart grids form the digital backbone of Grid 2.0, ensuring renewable energy can scale beyond 50% penetration without compromising stability.


4. Hydrogen — The Long-Term Game Changer

While batteries balance short-term fluctuations, green hydrogen is emerging as Africa’s long-term energy storage and decarbonization solution.

Green Hydrogen Highlights

  • Namibia’s Hyphen Project targets 300,000 tonnes per year powered by 5 GW of renewables.

  • Egypt’s Suez Canal Zone is developing hydrogen export terminals for European markets.

  • South Africa’s Hydrogen Valley is integrating hydrogen into industrial and transport applications.

Hydrogen bridges the gap between renewable energy generation and industries that cannot easily electrify — like fertilizer, steel, and shipping. It also transforms excess renewable capacity into exportable green fuel, strengthening Africa’s global energy influence.


5. Financing the Future Grid

Building Africa’s Grid 2.0 will require over $120 billion in annual investment, yet current funding levels fall far short.

Emerging Financing Trends

  • Green bonds and carbon credits are unlocking new capital for grid and storage projects.

  • Development banks are shifting from generation funding to infrastructure and grid resilience.

  • Private investors are embracing “grid-as-a-service” models, monetizing data, reliability, and efficiency.

The next growth phase won’t be defined merely by who builds the power plants — but by who manages the data and intelligence that keep the grid balanced.


6. Policy, Integration, and Regional Power Pools

Technology alone cannot deliver energy equity — policy coordination and regional cooperation are essential.

Continental Progress

Liberalized markets are allowing independent power producers (IPPs) to sell directly to consumers, increasing competition and accelerating innovation.

Ultimately, Africa’s energy security will depend on a Pan-African Supergrid — powered by renewables, balanced by storage, and optimized through AI.


7. Powering the Vision — Nocheski Solar’s Perspective

At Nocheski Solar, we believe that Africa’s energy transition must be both technically advanced and socially inclusive.

Through our partnerships and expertise in solar, storage, and smart energy systems, we are helping communities and businesses transition into this new era — one project at a time.

Our vision for Grid 2.0 is clear:
A network where clean energy means empowerment, where data drives efficiency, and where Africa leads the world in sustainable energy innovation.


Final Thoughts — Power Reimagined

Grid 2.0 isn’t just about upgrading wires and transformers. It’s about redefining energy access, equity, and intelligence.

Africa stands on the brink of an energy renaissance — one built not on imitation, but innovation. The continent’s renewable abundance, combined with smart technologies and forward-thinking policy, is paving the way for a truly African energy revolution.

The future grid won’t just deliver power.
It will deliver progress, independence, and resilience — the true promise of Grid 2.0.



Net Metering in Ghana: What It Is & How It Empowers Solar Users in 2026

Net metering is becoming one of the most transformative renewable energy policies in Ghana, helping households, businesses and public institutions maximise solar power, reduce electricity bills, and contribute to a cleaner energy future. Ghana’s national rollout has gathered pace, with new digital tools and regulatory frameworks now in place to make adoption easier and more cost-effective. energycom.gov.gh+1


📌 What Is Net Metering?

Net metering (or net energy metering) is a billing mechanism that allows electricity consumers with solar panels to export surplus power they generate back into the national grid and receive credits on their electricity bills. Instead of losing excess energy produced during peak sunlight hours, Ghanaian prosumers — i.e., producer-consumers — can offset future electricity consumption with those credits. Wikipedia

This system is especially valuable in countries like Ghana where solar irradiance is high and energy costs are rising — letting solar owners benefit financially while strengthening energy resilience.


📈 Why Net Metering Matters for Ghana

Ghana’s renewable energy ecosystem has historically relied on hydro and fossil fuels. Net metering marks a significant shift toward distributed solar generation, enabling more citizens to participate in the energy grid as active stakeholders. Key benefits include:

Lower Electricity Bills

Solar users earn credits for excess power they export, which reduces their utility bills over time.

Boosts Solar Investment

Net metering attracts homeowners, SMEs, industries and public facilities to invest in rooftop solar systems — creating local jobs and stimulating the solar economy.

Energy Security & Grid Support

Distributed generation helps reduce pressure on the national grid and stabilises supply, especially during peak demand or outages.

Supports National Renewable Goals

The policy aligns with Ghana’s renewable energy targets under the Renewable Energy Act (Act 832) by diversifying the energy mix and incentivising clean power adoption. Wikipedia


https://www.youtube.com/watch?v=afmL5NjxkQw

⚙️ How Net Metering Works in Ghana

Here’s the simple process:

  1. Install a grid-connected solar PV system at your home or business.

  2. Receive a bi-directional smart meter that tracks both imported and exported energy.

  3. Export excess solar generation to the national grid when your system produces more than you consume.

  4. Earn credits based on that exported energy. These credits offset the electricity you draw from the grid later — such as at night or on cloudy days.

  5. Annual reset or rollover rules apply depending on PURC and Energy Commission guidelines. energycom.gov.gh+1

Unlike traditional feed-in tariffs, net metering credits are typically calculated against retail electricity prices — meaning homeowners get maximum value for their exported solar energy. Wikipedia


📊 Ghana’s Recent Net Metering Advancements (2025–2026)

The government has accelerated net metering implementation with key developments:

🌐 National Net Metering Web Application Portal

In late 2025, the Ministry of Energy and Green Transition launched an online portal that streamlines net metering applications — making it easier for households, businesses and institutions to apply for smart meters and participate in the programme. The Business & Financial Times

📦 12,000 Net Metered Solar Deployments

Under the Scaling-Up Renewable Energy Programme (SREP), the government plans to deploy 12,000 rooftop solar PV systems with net metering capability nationwide. This includes public facilities, SMEs and household installations. The Business & Financial Times

🤝 Funding & Partnerships

The rollout is supported by the African Development Bank (AfDB), Climate Investment Funds (CIF), the Swiss Government (SECO), and the Government of Ghana — combining financial support, expertise and implementation collaboration. News Ghana

📈 Tracking & Transparency

The digital portal also serves as a national database to monitor all solar installations, helping regulators and utilities manage the growing solar generation fleet. GBC Ghana Online


💡 Who Can Benefit from Net Metering in Ghana?

Net metering is designed for a wide range of electricity consumers:

  • Homeowners with rooftop solar installations

  • Small and Medium Enterprises (SMEs)

  • Industries and commercial buildings

  • Public institutions such as schools, hospitals, and government offices

To participate, properties must meet technical standards and grid connection requirements, including anti-islanding and appropriate interconnection agreements. The Business & Financial Times


📍 Practical Tips for Solar Prospective Users

Choose a certified installer who understands net metering requirements in Ghana.
Check eligibility with your utility (ECG, NEDCo, Enclave Power) before system installation.
Understand credit rollover rules, especially annual reset periods.
Monitor generation and export closely to maximise your bill savings.


🏁 Conclusion

Net metering in Ghana is no longer just a future ideal — it’s rolling out nationally with strong policy support, digital tools and international partnerships. For solar adopters, it’s a game-changer: cutting costs, increasing energy independence and helping Ghana meet its renewable energy goals.

If you’re considering solar in Ghana, net metering could be an essential part of your energy strategy — transforming your electricity consumption into a more sustainable, cost-efficient system.

At Nocheski Solar, we design and install net-metered solar PV systems fully compliant with Ghana’s Energy Commission and utility requirements. Contact 0244270092 0r 0303211743 for a site assessment today


Why Solar Power Systems Fail

When people search for why solar power systems fail, they are usually not asking an academic question.
They are asking because something has already gone wrong.

Batteries no longer last through the night.
Inverter systems trip under normal use.
Generators are running more than expected.
Confidence in solar power is lost.

In most cases, these problems are not caused by solar panels or battery technology.
They are caused by poor solar power system design.

Solar panels generate electricity reliably.
Modern inverter systems are robust.
Battery energy storage systems perform predictably when designed correctly.

Yet solar power systems continue to fail — not randomly, but predictably.

The common thread is design decisions made before installation:

  • load profiling based on estimates instead of measurements

  • battery storage sized without understanding night-time demand

  • inverter systems selected without accounting for peak loads

  • no allowance for environmental conditions or future growth

This article explains why solar power systems fail, what those failures have in common, and how proper system design prevents them.

WHY POORLY DESIGNED SOLAR POWER SYSTEMS FAIL IN GHANA

(And Why the Technology Is Usually Not the Problem)

Introduction: When “Solar Failed,” What Actually Failed?

 

When people say “solar didn’t work,” they are rarely describing a failure of solar technology.

In most cases, they are describing the failure of a poorly designed solar power system.

Solar power systems fail predictably, not randomly.
And those failures are almost always traced back to decisions made before installation — during system design.

Understanding this distinction is critical for anyone relying on solar power for homes, businesses, healthcare facilities, or institutions.


1. Solar Panels Are Not the Problem

Solar panels are mature, reliable technology.
They convert sunlight into electricity with predictable performance when installed correctly.

However, solar panels alone do not deliver reliable power.

Reliable electricity comes from a complete solar power system, which includes:

  • solar panels

  • an inverter system

  • a battery energy storage system (battery backup)

  • protection and control equipment

When a system fails, the issue is rarely the solar panels themselves.
The issue is how the system around them was designed.


2. Failure Begins With Guesswork, Not Measurement

One of the most common causes of failure is inadequate load profiling.

Instead of measuring how electricity is actually used, many systems are designed using:

  • rough estimates

  • nameplate ratings

  • assumptions about behavior

This leads to predictable errors:

  • inverter systems that cannot handle peak demand

  • battery storage that cannot supply night-time loads

  • systems that collapse under normal usage

A solar power system must be designed around real load behavior, not averages or guesses.

@nocheski

The failure of Solar power systems in Ghana begins with guesswork, NOT measurement .one of the most common causes of failure is indequate load profiling. @Chauvin Arnoux UK @Victron Energy @BYD @CA Messtechnik

♬ original sound – NOCHESKI SOLAR


3. Undersized Battery Energy Storage Systems

Battery energy storage is one of the most misunderstood parts of a solar power system.

A battery energy storage system (BESS) must be sized based on:

  • night-time energy demand

  • duration of autonomy required

  • critical vs non-critical loads

  • realistic depth of discharge

  • future growth

When battery storage is undersized:

  • power does not last through the night

  • generators are forced to run excessively

  • batteries degrade prematurely

  • confidence in solar power is lost

This is not a battery problem.
It is a design problem.


4. Inverter Systems Selected Without Context

Inverter systems are often selected based on:

  • headline power ratings

  • price

  • availability

Instead of:

  • surge requirements

  • motor starting currents

  • simultaneous load behavior

  • environmental conditions

An inverter system that is not designed for real operating conditions will:

  • trip under normal load

  • shut down during peaks

  • reduce system reliability

Again, the failure is not the inverter technology.
It is the absence of proper system design.


5. Ignoring Environment and Operating Conditions

Solar power systems do not operate in laboratories.

They operate in:

  • heat

  • dust

  • humidity

  • unstable usage patterns

  • environments with limited maintenance capacity

Design that ignores these realities leads to:

  • accelerated wear

  • overheating

  • frequent faults

  • shortened system life

A well-designed solar power system accounts for environment from the start, not after failure.


6. Price-Driven Design Is the Fastest Path to Failure

When the primary design constraint is price, reliability is always compromised.

This usually results in:

  • reduced battery storage

  • minimal protection

  • no allowance for growth

  • no redundancy for critical loads

The system may appear functional initially, but degradation begins immediately.

Lower upfront cost often produces higher lifetime cost.


7. Why Two Systems With the Same Solar Panels Perform Differently

It is common to see two installations using the same solar panels with completely different outcomes.

The difference is not the solar panels.
The difference is system design quality.

Design determines:

  • how long battery storage lasts

  • how often generators run

  • whether critical loads are protected

  • whether the system scales with demand

  • whether power remains reliable over time


8. Solar Power Systems That Work Are Rarely Dramatic

Well-designed solar power systems tend to be unremarkable.

They:

  • do not trip frequently

  • do not require constant intervention

  • do not surprise operators

They simply deliver power — day after day.

This is not luck.
It is engineering.


9. How to Avoid Solar Power System Failure

Reliable solar power systems share common characteristics:

  • The PEL 113 measures and records all the power and energy values.
    It can be used wherever there is electricity:
    • electricity generator: renewable energies, thermal energy, etc.

  • correctly sized battery energy storage

  • inverter systems matched to real demand

  • protection designed for real-world conditions

  • margins for growth and misuse

Design precedes equipment selection — not the other way around.


10. The Right Question to Ask

When a solar power system fails, the most important question is not:

“Why did solar fail?”

The correct question is:

“Was this solar power system ever designed to succeed?”


Conclusion: Solar Technology Works. Poor Design Does Not.

Solar power is not experimental.
It is proven, reliable technology.

Failures occur when system design is treated as optional.

At Nocheski Solar, we design solar power systems for:

  • real usage

  • real environments

  • real consequences

Because solar panels generate electricity —
but only a properly designed solar power system delivers reliable power.


Solar Panels in Ghana: From Polycrystalline to TOPCon and HJT Explained Simply

Solar energy adoption in Ghana has grown rapidly over the last decade. Rising electricity tariffs, unstable grid supply, frequent outages, and the need for energy independence have made solar power a smart investment for homes, businesses, schools, and industries.

Yet one major challenge remains: solar panel technology is evolving faster than public understanding.

At Nocheski Solar, we meet many clients who ask:

  • Is monocrystalline still good?

  • What is TOPCon?

  • Is bifacial better for Ghana’s climate?

  • Is HJT worth the extra cost?

This article explains the evolution of solar panel technology, step by step, in simple, practical language, with a clear focus on what works best in Ghana.


1. Where It All Started: Polycrystalline Solar Panels

Polycrystalline panels were once common across Ghana because they were affordable and widely available.

Key Characteristics:

  • Made from multiple silicon crystals

  • Blue, grainy appearance

  • Lower efficiency (15–17%)

  • Require more roof or land space

Why They Are Becoming Obsolete:

In Ghana, roof space is often limited, and high temperatures reduce panel performance. Polycrystalline panels simply cannot deliver enough power efficiently under these conditions. Today, they are rarely recommended for serious solar projects.


2. The Industry Standard: Monocrystalline Solar Panels

Monocrystalline panels quickly replaced polycrystalline panels due to better performance.

Why Mono Took Over:

  • Higher efficiency (18–20%)

  • Better performance in heat

  • Longer lifespan

  • Sleek black appearance

For many years, monocrystalline panels formed the backbone of solar installations in Ghana—and they still perform reliably today.

https://www.youtube.com/watch?v=8aB_GY6rxPA


3. Smarter Engineering: Half-Cut and PERC Technology

To further improve output and durability, manufacturers introduced PERC and half-cut cell designs.

What This Improved:

  • Reduced internal power losses

  • Better heat resistance (important for Ghana’s climate)

  • Improved long-term reliability

These panels marked a major step forward and are still widely installed across residential and commercial projects.


4. Understanding Bifacial Panels (Very Important)

This is where confusion often begins.

Key Point:

👉 Bifacial is not a solar cell technology. It is a panel design.

What Makes a Panel Bifacial?

  • Electricity is generated from both the front and the back

  • The rear side captures reflected sunlight from the ground

  • Uses glass on both sides, not a white backsheet

Does Bifacial Work in Ghana?

Yes—very well, especially when:

  • Installed on light-colored roofs

  • Mounted above concrete, sand, or reflective surfaces

  • Used in ground-mounted or elevated systems

Bifacial panels can deliver 10–30% more energy depending on site conditions.

Solar Panels in Ghana: From Polycrystalline to TOPCon and HJT Explained

Solar Panels in Ghana: From Polycrystalline to TOPCon and HJT Explained in ghana


5. TOPCon Solar Technology: Built for Heat, Built for Ghana

TOPCon (Tunnel Oxide Passivated Contact) is one of the most important modern solar cell technologies.

What Is TOPCon?

TOPCon refers to how the solar cells inside the panel are engineered, not the external appearance of the panel.

Why TOPCon Is Ideal for Ghana:

  • Higher efficiency (23–24%)

  • Excellent performance in high temperatures

  • Lower degradation over time

  • Longer useful lifespan (25–30+ years)

Bigger Power, Fewer Panels:

TOPCon panels are now available in 600–700W ratings, which means:

  • Fewer panels on the roof

  • Reduced mounting and wiring costs

  • More power from limited space

For homes and businesses in Ghana, this translates directly into better return on investment.


6. TOPCon + Bifacial: Maximum Energy Output

Here is the most important clarification:

You can combine TOPCon cell technology with a bifacial panel design

  • TOPCon = how the cell is made

  • Bifacial = how the panel captures sunlight

Why This Combination Is Powerful:

  • Higher base efficiency

  • Additional rear-side power generation

  • Superior performance in open, sunny environments

👉 For most solar installations in Ghana today, TOPCon bifacial panels offer the best balance of performance, durability, and value.


7. HJT Solar Panels: The Premium Technology

HJT (Heterojunction Technology) currently represents the highest level of solar panel efficiency.

Advantages of HJT:

  • Highest efficiency available

  • Extremely low degradation

  • Outstanding performance in hot climates like Ghana

Considerations:

  • Higher upfront cost

  • More suitable for premium or large-scale projects

  • Best where maximum output per square meter is critical

HJT is ideal for high-end commercial, industrial, and utility-scale projects, but may not always offer the best cost-benefit for every home.


8. Solar Panel Technology Ranking (Simplified)

From highest performance to lowest:

  1. HJT Solar Panels

  2. TOPCon Solar Panels

  3. Half-Cut Monocrystalline (PERC)

  4. Polycrystalline Panels


9. What Really Matters in Ghana

In Ghana, there are no solar panel subsidies, so the decision must be based on:

  • Long-term energy output

  • Heat performance

  • Durability

  • Space efficiency

  • Total lifetime value—not just upfront cost

Choosing outdated technology may look cheaper today, but it costs more over time through lower energy production and faster degradation.


10. Nocheski Solar’s Expert Recommendation

🔑 Technology first. Brand second.

A well-engineered modern panel will always outperform an old design—even from a popular brand.

Our General Guidance:

  • Homes & SMEs: TOPCon bifacial

  • Commercial & Industrial: TOPCon or HJT

  • Large Ground-Mounted Systems: Bifacial TOPCon or HJT


Powering Ghana’s Solar Future

At Nocheski Solar, we design solar systems specifically for Ghana’s climate, grid conditions, and energy needs.
We don’t just sell panels—we build reliable, high-performance energy solutions that deliver real value for decades.

📞 Talk to Nocheski Solar today and let’s design the right solar technology for your home or business.

Smart solar starts with clear understanding. 🌞


Victron Energy SmartSolar MPPT Charge Controllers

With Built-in Bluetooth Smart Technology

Available at Nocheski Solar – Ghana’s Trusted Solar Power Experts


Victron Energy SmartSolar MPPT – Intelligent Solar Charging Made Simple

The Victron Energy SmartSolar MPPT charge controller with built-in Bluetooth Smart is the gold standard in modern solar energy management. Designed for maximum energy harvest, real-time monitoring, and long battery life, this advanced MPPT controller is ideal for homes, businesses, telecom sites, water pumping systems, and off-grid installations across Africa.

At Nocheski Solar, we supply, install, and support genuine Victron Energy SmartSolar MPPTs backed by over 20 years of hands-on solar engineering experience.


Why Choose Victron SmartSolar MPPT from Nocheski Solar?

Higher Solar Yield – Up to 30% more energy than conventional PWM controllers
Bluetooth Built-In – No extra dongles required
Proven European Engineering – Designed in the Netherlands
Ideal for Ghana & Africa – Handles heat, dust, and unstable grid conditions
Expert Local Support – Sizing, installation & after-sales by Nocheski Solar


Key Features of Victron SmartSolar MPPT Controllers

🔹 Maximum Power Point Tracking (MPPT)

Victron’s ultra-fast MPPT technology continuously tracks the optimal voltage and current, extracting every possible watt from your solar panels—especially critical during cloudy weather or early mornings.

🔹 Built-In Bluetooth Smart

Monitor and configure your solar system wirelessly using the VictronConnect App on your smartphone, tablet, or laptop.

  • Real-time solar yield

  • Battery voltage & charge status

  • Historical performance data

  • Easy parameter configuration

No internet. No cables. No guesswork.

🔹 Intelligent Battery Charging

Supports:

Advanced charging algorithms protect batteries from over-charging, deep discharge, and thermal stress, significantly extending battery lifespan.

🔹 High Voltage & High Current Models Available

victron energy SmartSolar MPPT 150-70-Tr VE Can -LEFT

victron energy SmartSolar MPPT 150-70-Tr VE Can avaialble in Ghana

SmartSolar MPPTs are available in multiple sizes, including:

Perfect for small home systems to large commercial solar plants.


Ideal Applications

The Victron SmartSolar MPPT is trusted worldwide for:

  • ☀ Residential solar systems

  • 🏢 Commercial & industrial solar installations

  • 🚰 Solar water pumping systems

  • 📡 Telecom & remote monitoring stations

  • 🏥 Health facilities & vaccine cold storage

  • 🌍 NGO & donor-funded off-grid projects

Nocheski Solar has deployed Victron systems in urban, rural, and conservation areas, including critical health and water infrastructure projects.


Why Buy Victron Energy Products from Nocheski Solar?

Nocheski Solar is not just a reseller. We are system designers, engineers, and long-term partners.

When you buy from us, you get:

  • ✔ Guaranteed original Victron Energy products

  • ✔ Correct sizing & system design advice

  • ✔ Professional installation & commissioning

  • ✔ Training for NGOs, engineers & technicians

  • ✔ Long-term technical support in Ghana

📍 Operating since 2007
🌍 Experience across Ghana, Europe & emerging markets
🔧 Trained by Victron Energy, Fronius & leading European manufacturers


Victron SmartSolar MPPT Price in Ghana

Prices vary depending on model, voltage, and current rating.

👉 Contact Nocheski Solar for current pricing, bulk discounts, and project quotations.


Frequently Asked Questions (SEO Boost)

❓ What is the difference between MPPT and PWM charge controllers?

MPPT controllers are up to 30% more efficient, especially in high-temperature environments like Ghana.

❓ Can I monitor my Victron SmartSolar remotely?

Yes. Built-in Bluetooth allows full monitoring via the VictronConnect App.

❓ Is Victron SmartSolar compatible with lithium batteries?

Absolutely. Victron is one of the best brands globally for lithium battery integration.


Order Victron Energy SmartSolar MPPT Today

Power your solar system with precision, intelligence, and reliability.

📞 Call / WhatsApp Nocheski Solar
📧 Email: [email protected]
🌐 Website: www.nocheski.com

Nocheski Solar – Powering Africa with Intelligent Solar Solutions


seeking the best Solar Installation Company in Ghana?  Choosing the right solar installation company in Ghana may be what turns the difference between a return-on-investment system and one that withers away after a few months. As solar energy adoption gains momentum in Ghana, so has the number of companies that promise quick installation and cheap deals. But when it comes to power sustainably powering your home, business, or institution, expertise and quality matter.

We at Nocheski Solar believe a solar power installation is not simply about panels and cables—it’s about long-term energy independence. With nearly two decades of solar engineering and energy management under our belt, we’ve made it possible for hundreds of Ghanaians to transition to clean, reliable power.

Here’s how to choose the right solar company in Ghana—and why Nocheski Solar stands as the gold standard.

1. Look for Demonstrated Experience and Track Record

Solar systems are technological investments that require professional design and precise installation. The best companies are those with years of on-site experience in the installation of residential and commercial solar power.

A good installer should possess:

Case studies or past experience described

Experienced engineers and certified professionals

Knowledge of Ghana’s unique power issues (voltage fluctuations, weather, etc.)

Nocheski Solar has installed complex installations in every one of Ghana’s 16 regions—industrial power systems in Tema to off-grid installations in the Western Region. Our installations demonstrate longevity and performance in real-world Ghanaian conditions.

2. Search for Quality Components and Reliable Partnerships

Not all solar panels and inverters are created equal. A lot of inexpensive equipment lasts only a couple of years because it uses substandard components or incompatable designs.

The leading solar companies in Ghana employ internationally recognized brands and ensure that each component—starting from the solar panels all the way down to the batteries and monitoring devices—is of the highest standard.

At Nocheski Solar, we only work with:

Victron Energy (The Netherlands) for power control and hybrid systems

Fronius (Austria) for high-end inverters

BYD (China) for advanced lithium battery storage

Chauvin Arnoux (France) for diagnostic equipment and energy auditing

All such collaborations guarantee long-term system performance, quantifiable return on investment, and safe operation.

3. Evaluate Technical Ability and Design Capability

The perfect solar installation starts several months prior to one panel ever being installed. It starts with a thorough energy audit and a customized design. The best installers will use the actual power your home consumes, review your site conditions, and recommend a system tailored to your needs—not a one-size-fits-all box.

At Nocheski Solar, we perform energy audits of investment-grade using Chauvin Arnoux energy analyzers. This ensures every system is engineered with optimal efficiency and potential for future growth. We engineer both to international standards as well as Ghanaian grid code.

4. Demand Transparency and Clear Pricing

You should receive a clear quote from a professional solar installer—no surprises, no beating around the bush. Be wary of under-quoters or firms that don’t want to make a written proposal.

Nocheski Solar provides comprehensive financial and technical proposals, demonstrating:

Equipment specifications

Expected daily power output

Battery life

Payback period and estimated energy saving

Our experience is that transparency builds confidence and that confidence builds long-term relationships.

5. After-Sales Maintenance and Support Services

Solar energy is a long-term investment, usually over 20 years. Without proper maintenance and technical support, even the best system will not deliver.

When selecting a solar installation firm in Ghana, always ask:

Warranty conditions

After-sales maintenance

Remote viewing or service response time

With Nocheski Solar’s after-sales service, you get the best. We provide continuous system monitoring, regular check-ups, and fast action on any request for maintenance. Our customers are assured of having a peace of mind that their investment is in top form at all times.

6. Read Reviews and Ask for References

Before making a deal, check what previous customers think. Testimonials, Google reviews, or word of mouth are gold when establishing a company’s reliability. A top-rated solar company should have a solid local reputation and positive client reviews.

Nocheski Solar is proud to have earned trust among Ghana’s corporate, industrial, and residential population because of our professionalism and consistent outcomes.

Conclusion

Selecting the right solar installation company in Ghana requires more than comparing prices—it’s about choosing a partner with the right expertise, tools, and values.

With over 20 years of combined experience, Nocheski Solar continues to set the industry standard through innovation, reliability, and commitment to excellence. Whether you’re powering a home, a school, or a manufacturing plant, we’re here to make your transition to clean energy seamless and sustainable.

Call to Action

☀️ Want to go solar with Ghana’s top choice experts?
Go to www.nocheski.com
or call us now to book a free solar consultation.
Together, let’s build a brighter, cleaner, and safer energy future.


How much of the energy consumed in a typical building is accounted for by the lighting? If you don’t already know, you’ll probably be amazed that the answer is around 40%! As lighting is such a big contributor to the energy bill, it’s clearly an area that’s well worth looking at when it comes to making savings. But when considering economies, there are some important requirements and regulations to bear in mind, says Julian Grant of Chauvin Arnoux.

We all need light to work and, as an online search will quickly confirm, any number of studies have shown that good lighting increases worker productivity and wellbeing. So perhaps the 40% of your business’s energy bill that pays for lighting is money well spent? Maybe, but when such a large amount of expenditure is involved, it’s important to be sure. And, in reality, a little investigation will often reveal ways in which energy costs for lighting can be significantly reduced while maintaining or even improving the lighting environment.

Since lighting is so important for efficiency and safety, it might be expected that there would be statutory requirements for workplace lighting levels. In the UK at least, this is not the case, although it is important to bear in mind that the Workplace (Health, Safety and Welfare) Regulations require lighting to be “suitable and sufficient.” Rather more detailed and helpful guidance is, however, provided in the publication “Lighting at Work” (HSG38), which is available as free download from the Health and Safety Executive website (www.hse.gov.uk). This publication includes, for example, a table showing recommended minimum lighting levels for various work locations.

Further guidance on lighting is available from the Chartered Institution of Building Services Engineers (CIBSE) which publishes a code for lighting that is supplemented by a range of guides covering specific types of buildings such as offices, hospitals and sports facilities. These publications can be purchased from CIBSE.

After the appropriate light levels for a particular workplace have been determined, the next requirement is to check whether they are actually being achieved. This requires the use of a light meter (sometimes called a luxmeter). Simple types allow spot readings to be taken at any given location, but they are not ideal for checking the workplace environment for two reasons. The first is that lighting needs to be evaluated over an area, to ensure that light levels are adequate throughout the whole workplace and that there are no shadowed or dimly lit areas. The second reason is that lighting levels can vary throughout the working day or even from season to season, especially when natural light makes a major contribution. Lighting levels in particular areas may also fluctuate as people move around and cast shadows.

For these reasons, a logging light meter, such as the Chauvin Arnoux C.A 1110, is a much better option. This particular instrument has a mapping function, which allows the light levels throughout a room to be plotted automatically to confirm that the lighting is uniform and adequate. It can also collect and store results over time and can, therefore, be temporarily mounted in a particular location – it is magnetic, which makes mounting easy on any steel surface such as filing cabinet – when it will collect readings over hours, days or even weeks. These readings can then be downloaded to provide accurate and detailed information about changes in the lighting level throughout the monitoring period.

Obtaining accurate information about lighting levels is, of course, only the first step for those concerned with energy economy. The next step is to determine exactly how much energy the lighting system is using, and to identify areas where savings could be made. The key to achieving this is to use a portable energy logger (PEL). These versatile instruments can be easily installed at the distribution switchboard that supplies the lighting systems and will monitor energy usage over time. Some types can monitor multiple circuits simultaneously.

The results obtained from a PEL are often surprising and may even be horrifying! A frequent finding is that there is excessive out-of-hours energy usage – or, to put it another way, people forget to turn off the lights when they leave the building. Interestingly, a recent survey carried out by British Gas has shown that up to 46% of the energy used by SMEs was consumed outside normal business hours, so this is clearly an area worthy of careful consideration.

Fortunately, the solution is relatively simple: install a last-person-out switch so that the last person leaving the building can operate this single switch to turn off all of the lighting that’s not needed when the building is empty. Occupancy sensors can also be fitted to turn off the lights in individual rooms that are not being used. It shouldn’t be forgotten, however, that energy can be wasted on lighting even when the workplace is occupied and in use. It’s all too easy, especially in the winter months, to turn the lights on when natural light levels are low in the morning but neglect to turn them off later when natural light levels increase. The solution here is to install daylight sensors as part of the lighting controls.

In addition to effective control, another key factor in the energy efficiency of lighting is, of course, the type of light source. These days, in almost every case, the best choice will be LEDs. Not only are LED light sources much more energy efficient than other types,

they also have much longer lives and therefore greatly reduce maintenance costs, especially in large installations. When installing or converting to LED lighting, however, there are a few caveats.

In particular, the cheapest options may be far from the best choice. Cheap LEDs may have poor colour temperature, or colour temperature that is inconsistent as they age. They may be unreliable, and they will typically have shorter working lives than their apparently more expensive counterparts. It’s worth remembering that if an LED light source is half the price of a competitor but needs to be replaced once a year rather than once every five years, over the five year term it’s actually 2.5 times more expensive. And that doesn’t even take into account the cost of installing the replacements.

Also important to bear in mind is that not all types of LED light source are compatible with every type of control system, especially if dimming is required. For these reasons, it’s best to work with an expert LED lighting supplier who will provide dependable guidance and advice, particularly for large re-lamping projects.

When all the right control systems and all the best energy-efficient light sources are in place, there are two more essential tasks to be tackled. The first is to carry out another lighting survey with the light meter, to ensure that the planned lighting levels are being achieved. The second is to monitor the energy usage again with the PEL to ensure that the expected energy savings are being delivered.

These procedures will confirm the immediate effectiveness of the changes and upgrades that have been put in place, but they should not be considered as one-off events! Lighting surveys and energy monitoring should, in fact, be repeated periodically as part of routine maintenance procedures. This is because even the best of light sources lose output and shift in colour over time, and it’s by no means unknown for minor faults to develop on lighting systems – for example, are the daylight sensors still working? – which increase energy usage but could pass unnoticed without an energy survey.

 

As we’ve seen, there is the potential for many businesses to significantly reduce the amount of energy they use for lighting, with corresponding reductions in expenditure and environmental impact. The keys to unlocking these savings while providing lighting that will boost staff productivity and welfare are to install the right light sources, then regularly monitor their performance with a good logging light meter and a portable energy logger. These instruments are an excellent investment. They are modestly priced and they will pay for themselves in next to no time!

 


Lithium-ion and Lithium iron phosphate are two types of batteries used in today’s portable electronics. While they both share some similarities, there are major differences in high-energy density, long life cycles, and safety. Most people are familiar with lithium-ion as they most likely own a smartphone, tablet, or PC. Lithium iron phosphate (AKA LiFePO4 or LFP)  is a newer type of battery gaining recognition in the manufacturing industries due to its cost-effective materials and stability with high temperatures.

When using power sources to run embedded components, it’s not always simple to pop in a fresh set of batteries. Newer technologies, from smartphones to electric vehicles to portable power tools, require batteries that can hold a significant amount of energy, be lightweight enough to carry or move, and be safe for the user. Lithium batteries offer all these benefits for portable electronics, vehicles, medical equipment, and even grid energy storage.

 

Chemistries Of Lithium Iron Phosphate And Lithium-Ion

Charge and discharge rates of a battery are governed by C-rates. The capacity of a battery is commonly rated at 1C, meaning that a fully charged battery rated at 1Ah should provide 1A for one hour. The same battery discharging at 0.5C should provide 500mA for two hours, and at 2C it delivers 2A for 30 minutes.

Lithium-Ion

Lithium-ion can consist of two different chemistries for the cathode, lithium manganese oxide or lithium cobalt dioxide, as both have a graphite anode. It has a specific energy of 150/200 watt-hours per kilogram and a nominal voltage of 3.6V. Its charge rate is from 0.7C up to 1.0C as higher charges can significantly damage the battery. Lithium-ion has a discharge rate of 1C.

Lithium Iron Phosphate (LiFePO4)

Lithium iron phosphate has a cathode of iron phosphate and an anode of graphite. It has a specific energy of 90/120 watt-hours per kilogram and a nominal voltage of 3.20V or 3.30V. The charge rate of lithium iron phosphate is 1C and the discharge rate of 1-25C.

Example of a Lithium Iron Phosphate Battery Cell

Example of lithium iron phosphate battery cells.

 

What Are The Energy Level Differences?

There are significant differences in energy when comparing lithium-ion and lithium iron phosphate. Lithium-ion has a higher energy density at 150/200 Wh/kg versus LiFep04 at 90/120 Wh/kg. So, lithium-ion is normally the go-to source for power hungry electronics that drain batteries at a high rate.

On the other hand, the discharge rate for lithium iron phosphate outmatches lithium-ion. At 25C, lithium iron phosphate batteries have voltage discharges that are excellent when at higher temperatures. The discharge rate doesn’t significantly degrade the lithium iron phosphate battery as the capacity is reduced.

Life Cycle Differences

Lithium iron phosphate has a lifecycle of 1,000-10,000 cycles. These batteries can handle high temperatures with minimal degradation. They have a long life for applications that have embedded systems or need to run for long lengths of time before needing to be charged.

For lithium-ion, the higher energy density makes it more unstable, especially when dealing with higher operating temperature environments. It has a life cycle of 500-1,000 cycles as it can be negatively impacted based on the operating temperature of the electronics or working components.

Long-Term Storage Benefits

When it comes to storing unused batteries, it is important to pick a chemistry that doesn’t lose its charge over long periods of time. Instead, the battery should give close to the same charge performance as when it is used for over a year. Both lithium iron phosphate and lithium ion have good long-term storage benefits. Lithium iron phosphate can be stored longer as it has a 350-day shelf life. For lithium-ion, the shelf life is roughly around 300 days.

Safety Advantages Of Lithium Iron Phosphate

Manufacturers across industries turn to lithium iron phosphate for applications where safety is a factor. Lithium iron phosphate has excellent thermal and chemical stability. This battery stays cool in higher temperatures. It is also incombustible when it is mishandled during rapid charges and discharges or when there are short circuit issues. Lithium iron phosphate does not normally experience thermal runaway, as the phosphate cathode will not burn or explode during overcharging or overheating as the battery remains cool.

However, the chemistry of lithium-ion does not have the same safety advantages as lithium iron phosphate. Its high energy density has the disadvantage of causing the battery to be unstable. It heats up faster during charging as a lithium-ion battery can experience thermal runaway.

Another safety advantage of lithium iron phosphate involves the disposal of the battery after use or failure. A lithium-ion battery made with a lithium cobalt dioxide chemistry is considered a hazardous material as it can cause allergic reactions to the eyes and skin when exposed. It can also cause severe medical issues when swallowed. So, special disposal considerations must be made for lithium-ion. On the other hand, lithium iron phosphate is nontoxic and can be disposed of more easily by manufacturers.

Applications For Lithium Iron Phosphate And Lithium-Ion

Lithium iron phosphate is sought after for any electronics or machines where safety and longevity are desired but doesn’t need an extremely high energy density. Electric motors for vehicles, medical devices, and military applications where the technology will experience higher environmental temperatures. Lithium iron phosphate is also ideal for applications that are more stationary as the battery is slightly heavier as well as bulkier than lithium-ion, although it can be used in some portable technologies.

LiFePO4 may not be selected for applications where portability is a major factor due to its extra weight. For smartphones, laptops, and tablet devices, lithium-ion batteries are used. Any high-energy device that needs the best performance on the first day can benefit from the chemistry found on lithium ion batteries.

Besides looking for the right energy sources based on portability, safety and energy density, manufacturers also must consider the costs during the production of electronics as well as during disposal. Many manufacturers will select lithium iron phosphate as the cheaper battery alternative. The batteries cost less due to the safer iron phosphate chemistry as manufacturers don’t have to spend more money to recycle the materials.

Lithium Offering A Range Of Benefits

Advances in battery technologies has placed lithium chemistry at the head of the pack for being the best power source for high energy use devices that are portable. It’s long shelf life and the benefit in providing a continuous source of power over long periods of time is why both lithium-ion and LiFePO4 are reliable alternatives.

Currently, lithium batteries are still on the pricey side when compared to nickel metal hydride and nickel cadmium batteries. Yet, the long life of lithium batteries can equal out the initial high costs. For manufacturers trying to decide whether lithium-ion or  LiFePO4 will be ideal for applications, consider these key factors:

  • Highest energy density: lithium-ion
  • Good energy density and lifecycle: LFP
  • Stable chemical and thermal chemistry: LFP
  • No thermal runaway and safe when fully charged: LFP
  • Portability and lightweight characteristics: lithium-ion
  • Long life: lithium iron phosphate and lithium-ion
  • Low costs: LFP

Also, take the operating environment into serious consideration as well as any vibration issues that may be experienced. These instances may influence a manufacturer’s choices as the chemistry stability that lithium iron phosphate offers are superior than that of lithium-ion.


The Chauvin Arnoux Group in association with Nocheski puts all its know-how at the service of the prevention of the Covid 19 pandemic in Ghana

Measuring devices, metrology and low temperature sensors … the Chauvin Arnoux group offers a complementary offer to meet the health prevention challenges of today and tomorrow: Measure and analyze the quality of ambient air, identify potential carriers of ‘a Covid 19 Virus with infrared, control the temperature of vaccine storage freezers using low temperature probes.

WATCH VIDEO

Analyze the ambient air

The measurement of indoor air quality is essential to fight against the spread of Viruses, in particular that of COVID 19, in a building (schools, nurseries, offices, seminar rooms, workshops, public transport, hospitals, etc.) . At the heart of this prevention strategy, “measurement” and its analysis tools take on their full importance.

Fighting Covid 19 with ca 1510 Chauvin Arnoux

The CA 1510 portable air analyzer from CHAUVIN ARNOUX, very efficient in closed places, instantly records air particles according to standard thresholds and. It alerts by sound and “red screen” in the event of non-compliance with air quality criteria based on the CO2 level, temperature or humidity level or even the combination of the three physical quantities measured (CO2, temperature and relative humidity). Natural or artificial ventilation in confined spaces also plays a role in the spread of Covid 19 Viruses. In this respect, in addition, the CA 1227 thermo-anemometer has all the useful functions for measuring speed and air flow. Essential information to optimize the good ventilation of rooms.

 

Identify potential carriers of a Covid 19 Virus

In prevention, the measurement of potential indicators of disease such as fever are also provided by thermometers and thermal body cameras. The portable thermal camera CA 1900, easy to use, with immediate results and in complete safety through contactless distance, is one of the new sanitary devices to identify any person with too high a temperature and thus preventively fight against the risks of transmission of the disease.

Store vaccines

As part of the storage of the Covid 19 vaccine, the MANUMESURE company supports professionals in mapping their freezers at -80 ° C in COFRAC, intervening directly and quickly on site. PYROCONTROLE offers a range of low temperature (-80 °) temperature probes essential for players in the “Covid vaccine” sector; logistics (storage and transport), hospitals, pharmacists, doctors or even manufacturers of freezers …

Fighting Covid 19 with Chauvin ArnouxThe Chauvin Arnoux Group thus puts all its know-how, its adapted measuring devices and its metrology services at the service of pandemic prevention, to fully play its role in health situations such as the one we are experiencing today. For further inquiries on how to order these fine products in Ghana and the West Africa Region du contact Nocheski  on +233303211743 +233244270092 (Whatsapp) or email [email protected]