Oceanpick: How a Sri Lankan Entrepreneur Is Taking Sustainable Fish Farming to the Open Ocean 🌊🐟🇱🇰

HOW A SRI LANKAN ENTREPRENEUR IS TAKING SUSTAINABLE FISH FARMING TO THE OPEN OCEAN 🌊🐟🇱🇰: OCEANPICK

ලෝකෙම දිනන්න පුළුවන් බලවත් ලොකු රටවලට විතරයි කියන මතය සම්පූර්ණයෙන්ම කණපිට පෙරළපු අපේ කාලයේ විශිෂ්ටයෙක් ගැනයි අද අපි කතා කරන්නේ. ❤️

ඔහු නමින් ඉර්ෆාන් තාසිම්. මේ දක්ෂ තරුණ ව්‍යවසායකයාගේ අප්‍රතිහත ධෛර්යය නිසා අද වෙද්දී ශ්‍රී ලංකාවේ නාමය ලෝක වේදිකාවක රන් අකුරින් ලියවී අවසන්. 🌟

ඉර්ෆාන් විසින් මෙහෙයවන 'Oceanpick' සමාගම කියන්නේ දකුණු ආසියාවේ ආරම්භ කරපු ප්‍රථම විවෘත මුහුදු මත්ස්‍ය වගා (Open Ocean Fish Farming) ව්‍යාපෘතියයි. සාමාන්‍ය මත්ස්‍ය වගාවකට වඩා සම්පූර්ණයෙන්ම වෙනස් මඟක් ගත්තු මේ ව්‍යාපෘතිය, පරිසරයට කරන හානිය සහ කාබන් විමෝචනය අවම කරමින් ලෝකයටම අලුත්ම ආදර්ශයක් සපයන්න සමත් වෙලා තියෙනවා. 🌊🐟

මේ කැපවීමේ ප්‍රතිඵලය කොයිතරම්ද කිව්වොත්, 2025 වසරේ එක්සත් ජාතීන්ගේ කාර්මික සංවර්ධන සංවිධානය (UNIDO) මගින් පැවැත්වූ අතිශය තරගකාරී ONE World Sustainability Awards සම්මාන උළෙලේදී ලෝකයේ විශිෂ්ටතම තිරසාර ව්‍යාපාර අතරින් එකක් ලෙස සම්මානයට පාත්‍ර වෙන්න Oceanpick ආයතනයට හැකි වුණා.

මේක නිකම්ම නිකන් ජයග්‍රහණයක් නෙවෙයි! ලෝකයේ රටවල් 173කින් ඉදිරිපත් වුණු අයදුම්පත් 2000කට අධික ප්‍රමාණයක් අභිබවා යමිනුයි අපේ ලංකාවේ නාමය මෙලෙස ජයග්‍රාහී අවසන් වටයට තේරී පත්වුණේ. 🥇

"ව්‍යාපාරයක් කියන්නේ මුදල් ඉපයීම පමණක්ම නෙවෙයි, පරිසරය ආරක්ෂා කරමින් හෙට උපදින දරුවන්ටත් තිරසාර ආහාර රටාවක් ඉතුරු කිරීමයි" කියන උතුම් දැක්ම තමයි ඉර්ෆාන් තාසිම්ගේ මේ දැවැන්ත ජයග්‍රහණය පිටුපස තියෙන ලොකුම රහස. 🌿✨

ලෝක සිතියමේ අපේ රට කුඩා බිංදුවක් වගේ පෙනුණට, මුළු ලෝකෙටම ආදර්ශයක් දෙන දැවැන්ත සිහින දකින මිනිස්සු අපේ රටේ ඉන්නවා කියන්න මීට වඩා තවත් උදාහරණයක් අවශ්‍ය නැහැ. අපේ රටට ජාත්‍යන්තර කීර්තියක් ගෙනා මේ ශ්‍රී ලාංකික පුත්‍රයාට අපේ උණුසුම් සුබ පැතුම්! 👏🇱🇰

අපේ රටේ දේවල් අගයන, අපේ රටට ආදරේ කරන ඔබත් මේ ආඩම්බරකාරී පුවත Share කරලා හැමෝටම දැනගන්න සලස්වන්න.

Can a Small Country Create an Idea Big Enough for the World?

For decades, the world has often associated groundbreaking technology, major industries, and ambitious global businesses with powerful and wealthy nations.

But every once in a while, a small country proves that innovation is not determined by the size of a country.

Sri Lanka is one such example.

Today, we are looking at a remarkable Sri Lankan story that brings together entrepreneurship, marine science, sustainable food production, technology, and environmental responsibility.

At the heart of this story is Irfan Thassim, Founder and CEO of Oceanpick, a Sri Lankan company that has ventured into a fascinating area of aquaculture: offshore or open-ocean fish farming.

Instead of depending entirely on catching wild fish from the ocean, Oceanpick developed a model in which fish can be raised in carefully managed marine farming systems.

And this is not simply about producing more fish.

It raises a much bigger question:

Can humanity produce more seafood while reducing pressure on wild fish stocks and protecting the future of our oceans?

Oceanpick's journey offers an interesting Sri Lankan example of how entrepreneurs can attempt to answer that question.

What Is Oceanpick?

Oceanpick is a Sri Lankan aquaculture company focused on marine fish farming and sustainable seafood production.

The company was founded by Irfan Thassim in 2012, and its development later focused on commercial-scale marine finfish farming in Sri Lanka.

One of the most important aspects of Oceanpick's story is its use of offshore aquaculture, particularly in the waters around Trincomalee, Sri Lanka.

Unlike conventional fish farming carried out in ponds or enclosed land-based systems, offshore aquaculture takes fish farming into the marine environment.

The concept involves placing specially designed cages in the sea and raising fish under controlled farming conditions while taking advantage of the natural movement of seawater.

Oceanpick has described its initiative as South Asia's first offshore aquaculture system, making it an especially interesting development from a Sri Lankan and regional perspective.

The company has focused on species such as Barramundi, also known as Asian Sea Bass, which is locally known as Modha.

In 2016, Oceanpick announced plans for a major commercial-scale marine fish farming project in Sri Lanka. The project was expected to involve an investment of approximately US$2.5 million, with an eventual production target of around 1,000 tonnes per year.

These figures demonstrate that the project was conceived not merely as a small experimental farm, but as an attempt to establish a significant new sector within Sri Lanka's aquaculture industry.

What Exactly Is Open-Ocean Fish Farming?

To understand why Oceanpick is important, we first need to understand what open-ocean fish farming, or offshore aquaculture, actually means.

Aquaculture is the farming of aquatic organisms such as fish, shellfish, and aquatic plants.

It can take place in many different environments.

Fish may be raised in:

Freshwater ponds

Artificial tanks

Coastal ponds

Inland systems

Lakes and reservoirs

Nearshore marine cages

Offshore marine cages

Offshore aquaculture takes the concept into the open marine environment.

Instead of keeping fish in a small enclosed pond, farmers use specially engineered cages positioned in the sea.

These cages allow seawater to naturally flow through the farming system while keeping the farmed fish contained.

This creates an interesting combination of natural marine conditions and human-controlled farming.

However, it is much more complicated than simply putting a cage in the ocean.

Farm operators need to monitor numerous factors, including:

Water temperature

Salinity

Dissolved oxygen

Ocean currents

Fish health

Fish growth

Feed consumption

Cage strength

Weather conditions

Storms and waves

Disease risks

Fish escapes

Waste management

Environmental impacts

This is why modern offshore aquaculture depends heavily on marine engineering, biology, environmental monitoring, data collection, and aquaculture science.

Why Farm Fish in the Ocean When the Ocean Already Has Fish?

This is one of the most interesting questions surrounding aquaculture.

If the ocean already contains millions of fish, why do humans need to farm them?

The answer is connected to global food demand and the limitations of wild fisheries.

Wild-capture fisheries depend on catching naturally occurring fish populations from oceans, rivers, lakes, and other waters.

But wild fish populations are not unlimited.

As human populations grow and seafood consumption increases, relying entirely on wild capture can create increasing pressure on marine ecosystems.

This is where aquaculture becomes important.

Instead of obtaining all seafood through fishing, fish farming provides another way of producing aquatic food.

According to the Food and Agriculture Organization of the United Nations (FAO), global aquatic animal production reached approximately 185 million tonnes in 2022, and aquaculture accounted for about 51% of aquatic animal production for the first time.

That represents a major change in the way humanity obtains aquatic food.

For thousands of years, people primarily depended on hunting and catching aquatic animals.

Today, aquaculture has become a major part of the global food system.

This makes projects such as Oceanpick particularly relevant when discussing the future of food production.

The Sri Lankan Beginning of Oceanpick

Oceanpick's story goes back to 2012, when Irfan Thassim founded the company.

The idea was ambitious: develop a commercially viable marine fish farming industry in Sri Lanka while using the country's extensive marine resources responsibly.

By 2016, Oceanpick was moving toward establishing commercial-scale offshore fish farming.

The company's project was planned around the Trincomalee region, an area known for its deep natural harbour and extensive marine environment.

In February 2016, Oceanpick received its Board of Investment of Sri Lanka (BOI) Certificate of Registration, supporting the company's development as an investment project.

The company also worked with international expertise.

Oceanpick partnered with a Scottish company with experience in marine aquaculture, bringing international knowledge and technical experience into the Sri Lankan project.

This is an important lesson in innovation.

A successful innovation does not always mean inventing everything from scratch.

Sometimes innovation means combining local resources with international knowledge, technology, research, and experience to create something that works in a new environment.

Why Was Barramundi Chosen?

One of the key fish species associated with Oceanpick is Barramundi, scientifically known as Lates calcarifer.

It is also commonly called Asian Sea Bass.

In Sri Lanka, the fish is known as Modha.

Barramundi is an interesting species for aquaculture because it is adaptable to different environmental conditions and has strong commercial demand in seafood markets.

It is also valued as a food fish because of its mild flavour and firm flesh.

Oceanpick's early project information highlighted Barramundi's characteristics, including its taste and nutritional value, as factors supporting its selection.

The choice of species is extremely important in aquaculture.

Farmers cannot simply choose any fish and expect it to perform well.

They must consider:

Growth rate + environmental tolerance + feed requirements + disease resistance + market demand + production costs + consumer acceptance

All of these factors can determine whether a fish farming project succeeds or fails.

How Does an Offshore Fish Farm Actually Work?

Imagine a large cage floating in the ocean.

Inside that cage are thousands of fish.

The cage is designed to allow seawater to pass naturally through the structure while preventing the farmed fish from escaping.

The fish are provided with carefully formulated feed and monitored as they grow.

Farm workers and technicians regularly examine:

Fish health

Growth rates

Feeding behaviour

Water conditions

Cage integrity

Marine weather conditions

Environmental indicators

The fish are eventually harvested and transported through a controlled supply chain.

This means that offshore aquaculture is essentially a high-tech farming operation in the middle of a marine environment.

In land-based agriculture, farmers monitor soil, rainfall, temperature, pests, and crops.

In offshore aquaculture, farmers must monitor the ocean itself.

That makes the ocean both the farm and one of the most important variables affecting production.

The Science Behind the Ocean Farming Concept

Offshore aquaculture is not simply a business idea.

It is supported by decades of scientific research and development around the world.

Researchers have investigated how fish farming can be carried out while minimizing environmental impacts and maintaining healthy marine ecosystems.

One major area of research concerns water circulation.

Unlike a closed pond, an offshore cage is continuously exposed to moving seawater.

Ocean currents can carry oxygen into the farming area and transport dissolved materials away from the cage.

This can provide advantages over poorly flushed coastal systems.

However, strong currents and waves can also create engineering challenges.

The cages, mooring systems, nets, and other equipment need to withstand demanding marine conditions.

This is why offshore aquaculture brings together several fields of knowledge:

Aquaculture + Marine Biology + Oceanography + Engineering + Environmental Science + Data Monitoring

What Does Scientific Research Say About Aquaculture?

Researchers around the world have spent years studying whether aquaculture can contribute to sustainable food production.

One important international source is the FAO's State of World Fisheries and Aquaculture (SOFIA) report.

The FAO has documented the rapid growth of aquaculture and its increasing importance in global aquatic food production.

The 2024 edition of the SOFIA report, published by the FAO in Rome, reported that global fisheries and aquaculture production reached a record 223.2 million tonnes in 2022, including approximately 185 million tonnes of aquatic animals and 38.1 million tonnes of algae.

A particularly significant finding was that aquaculture produced 94.4 million tonnes of aquatic animals in 2022, surpassing capture fisheries for the first time.

In other words, humanity had reached an important milestone:

More aquatic animals were being produced through farming than caught from the wild.

This does not mean aquaculture automatically becomes environmentally sustainable.

Rather, it demonstrates how important responsible aquaculture has become to the world's future food supply.

Aquaculture Can Help — But It Is Not Automatically Sustainable

There is an important point that is sometimes missed when discussing projects such as Oceanpick.

Fish farming is not automatically environmentally friendly simply because it takes place in the ocean.

Poorly managed aquaculture can create environmental challenges.

These may include:

Nutrient pollution

Organic waste accumulation

Disease transmission

Parasite problems

Fish escapes

Impacts on wild fish populations

Feed-related environmental pressures

Damage to sensitive marine habitats

Therefore, sustainability depends heavily on how the farm is designed, managed, monitored, and regulated.

This is one reason scientific research is so important.

Researchers study questions such as:

How much waste is released?

How does the farm affect nearby ecosystems?

What happens when farmed fish escape?

How efficiently is feed converted into fish biomass?

What is the farm's carbon footprint?

Can production increase without damaging marine ecosystems?

These questions are essential when evaluating the long-term future of offshore aquaculture.

Why Oceanpick's Approach Attracted International Attention

Oceanpick's model attracted attention because it attempted to combine commercial fish production with environmental responsibility and traceability.

The company has promoted its model as a low-impact and traceable approach to producing seafood.

This concept is increasingly important in modern food systems.

Consumers today are not only asking:

“Is this food tasty?”

They are increasingly asking:

“Where did this food come from?”

“How was it produced?”

“Was the environment harmed?”

“Can its origin be traced?”

This is where the idea of traceability becomes important.

Traceability means being able to track a product through stages of its production and supply chain.

In seafood production, traceability can help identify information about where and how fish were produced, processed, and distributed.

For a modern sustainable food business, this can be just as important as the product itself.

The Bigger Idea: Blue Economy

Oceanpick's story also connects with a much larger global concept known as the Blue Economy.

The Blue Economy broadly refers to economic activities connected with oceans and marine resources that aim to create economic and social benefits while maintaining the health and long-term sustainability of ocean ecosystems.

It can include areas such as:

Sustainable fisheries

Aquaculture

Marine biotechnology

Coastal tourism

Renewable ocean energy

Marine transport

Ocean research

Conservation-related industries

For an island nation like Sri Lanka, the Blue Economy can have enormous potential.

Sri Lanka is surrounded by the Indian Ocean and has a large marine environment relative to its land area.

Therefore, finding ways to use marine resources responsibly could potentially create:

Food + Employment + Exports + Innovation + Investment + Environmental Protection

The challenge is ensuring that economic development does not come at the cost of the ocean itself.

From a Sri Lankan Startup to an International Sustainability Recognition

Years after its initial development, Oceanpick's journey reached an important international milestone in 2025.

The United Nations Industrial Development Organization (UNIDO) launched the ONE World Sustainability Awards to recognize organizations working toward sustainable industrial and business solutions.

Oceanpick was selected among the leading organizations in the Sustainable Supply Chains category.

According to UNIDO, the 2025 awards attracted nearly 2,000 applications from more than 135 countries, demonstrating the level of international competition involved.

Oceanpick was recognized among the Top Five in its category.

The recognition was presented during the UNIDO General Conference in Riyadh, Saudi Arabia, in November 2025, where Sri Lanka's Oceanpick was represented by its Founder and CEO, Irfan Thassim.

The recognition is significant because it places a Sri Lankan marine innovation into an international conversation about:

Sustainability + Food Security + Supply Chains + Climate Action + Responsible Industry

It is a reminder that groundbreaking ideas do not necessarily have to come from the world's largest countries.

Sometimes they can emerge from a small island in the Indian Ocean.

Oceanpick and the Journey Toward Net Zero

The company's sustainability ambitions do not stop with fish farming.

Oceanpick has also published a roadmap relating to greenhouse gas emissions and Net Zero.

Its sustainability roadmap includes milestones relating to emissions measurement, establishing greenhouse-gas baselines, verification, science-based target development, and longer-term carbon-neutrality and Net Zero goals.

The roadmap includes targets extending toward:

2030 – Near-Term Net-Zero Target

2040 – Carbon Neutrality

2050 – Net-Zero Target covering all relevant scopes

This is significant because sustainability cannot simply be a marketing slogan.

A genuine sustainability strategy requires organizations to:

Measure → Monitor → Reduce → Verify → Improve

Without measuring emissions and environmental impacts, it becomes difficult to determine whether a company is actually becoming more sustainable.

This is why carbon accounting, environmental monitoring, scientific verification, and transparent reporting have become increasingly important in modern business.

What Can We Learn From Irfan Thassim and Oceanpick?

The Oceanpick story offers lessons that go far beyond fish farming.

1. Innovation Is Not Limited by Geography

Sri Lanka may be a relatively small country, but its geographical location, marine resources, scientific knowledge, and entrepreneurial talent can create opportunities for globally relevant innovation.

2. Big Ideas Can Start Small

Oceanpick's story began with an idea and developed over many years.

Innovation does not always happen overnight.

3. Science and Business Can Work Together

Marine biology and aquaculture science provided the technical foundation, while entrepreneurship helped transform the concept into a commercial venture.

4. Sustainability Can Become a Business Strategy

Environmental responsibility does not necessarily have to be viewed as an obstacle to business.

When approached correctly, sustainability can become part of a company's competitive advantage.

5. International Partnerships Can Accelerate Innovation

Oceanpick's development demonstrates how local entrepreneurs can benefit from international technical knowledge and experience.

6. A Business Can Think Beyond Profit

A modern business can aim to generate financial value while also considering food security, environmental responsibility, employment, innovation, and long-term sustainability.

A Small Island With a Big Ocean Idea

The story of Oceanpick is ultimately much bigger than one company or one entrepreneur.

It represents an important question facing the entire world:

How can we feed a growing population without destroying the natural systems that provide our food?

The answer will probably require many different solutions.

Some may come from agriculture.

Some from biotechnology.

Some from renewable energy.

Some from aquaculture.

And some may come from unexpected places.

Oceanpick's journey shows that Sri Lanka can be one of those places.

From the waters around Trincomalee to an international sustainability platform in Riyadh, the journey of Irfan Thassim and Oceanpick demonstrates how a local idea can become part of a much larger global conversation.

And perhaps the most important lesson is this:

The size of a country does not determine the size of its dreams.

A small island can still produce ideas big enough to make the world stop and take notice. 🇱🇰🌊

How Can Fish Be Farmed in the Middle of the Ocean?

When most people hear the words fish farming, they probably imagine a pond, tank, or small enclosed water body.

But offshore aquaculture is very different.

Imagine travelling several kilometres away from the coastline and finding a huge underwater structure surrounded by the open ocean. Inside that structure, thousands of fish are swimming and growing.

There are no concrete walls.

There is no traditional pond.

Instead, the farm relies on a combination of strong marine cages, mooring systems, nets, sensors, boats, feed systems and scientific monitoring.

The surrounding ocean provides the water, while technology and careful management provide the control.

This is the basic idea behind open-ocean fish farming.

However, making this system work safely is a major engineering and biological challenge.

What Is an Offshore Fish Cage?

An offshore fish cage is a specially designed structure used to contain farmed fish in the marine environment.

The cage normally consists of a floating or semi-submerged framework, a strong net enclosure and an anchoring or mooring system.

The fish remain inside the net, while seawater can flow through it.

This creates a fascinating balance:

The fish are contained — but the water is not.

That is one of the biggest differences between a traditional closed fish tank and an offshore marine cage.

The cage needs to be strong enough to withstand:

Waves

Ocean currents

Wind

Storms

Marine organisms

Long-term saltwater exposure

Pressure from thousands of fish

Potential impacts from boats or debris

The engineering challenge becomes even greater when farms are moved farther offshore.

The deeper and more exposed the location, the more carefully the structure must be designed.

Why Are Ocean Currents So Important?

One of the most important natural forces in offshore aquaculture is water movement.

Fish need oxygen to survive.

In a natural ocean environment, water is constantly moving, mixing, and exchanging gases with the atmosphere.

When a cage is placed in an area with appropriate currents, fresh seawater can continuously pass through the cage.

This can help bring oxygen-rich water to the fish and carry dissolved waste away from the farming area.

But there is a delicate balance.

Too little water movement can allow waste products to accumulate.

Extremely strong currents, on the other hand, can create physical stress for fish and put enormous forces on cages and mooring systems.

Therefore, choosing the correct location is one of the most important decisions in offshore aquaculture.

Researchers and farm operators may study:

Current speed + water depth + oxygen + temperature + salinity + wave conditions + seabed characteristics

before deciding whether an area is suitable.

This is one reason why offshore fish farming is closely connected to oceanography.

How Do Farmers Know Whether the Ocean Is Suitable?

Before placing a commercial fish farm in the ocean, scientists need to understand the marine environment.

They can collect information about:

Water Temperature

Different fish species grow best within particular temperature ranges.

If water becomes too warm or too cold, fish metabolism, appetite, growth and health can be affected.

Dissolved Oxygen

Fish obtain oxygen from water through their gills.

If dissolved oxygen becomes too low, fish can become stressed or even die.

Salinity

Seawater contains dissolved salts, and salinity can influence fish physiology and the overall health of an aquaculture system.

Water Currents

Currents determine how quickly water passes through the cage and how materials disperse.

Wave Conditions

Waves influence cage movement and the forces placed on the structure.

Seabed Characteristics

The seabed matters because mooring systems need to remain securely anchored.

These measurements can be collected using instruments, underwater equipment, boats, remote sensors and monitoring systems.

In modern aquaculture, data can be just as important as feed and cages.

The Role of Sensors and Smart Aquaculture

Aquaculture is increasingly becoming a technology-driven industry.

Modern farms can use sensors to collect information about environmental conditions and fish health.

Depending on the system, sensors may monitor:

Temperature

Dissolved oxygen

Salinity

Water depth

Current speed

Wave conditions

Turbidity

Equipment condition

Some systems can transmit information to computers or mobile devices, allowing farm managers to identify changes more quickly.

This is part of a growing field sometimes called Smart Aquaculture or Precision Aquaculture.

The basic principle is simple:

Use data to make better decisions.

Instead of relying only on human observation, farmers can combine observations with continuous environmental measurements.

This can potentially help improve feeding efficiency, fish health, production planning and environmental management.

Can Artificial Intelligence Help Fish Farming?

The answer is increasingly yes.

Researchers and companies around the world are investigating how artificial intelligence, computer vision, robotics and machine learning can improve aquaculture.

Underwater cameras can capture images and videos of fish.

Computer algorithms can potentially analyze these images to estimate:

Fish size

Fish numbers

Swimming behaviour

Feeding activity

Abnormal behaviour

Health indicators

Why is this useful?

Because manually inspecting thousands of fish every day is difficult.

A computer system can continuously analyze video footage and alert farm operators when something unusual occurs.

This is part of a larger trend toward Precision Aquaculture.

The concept is similar to precision agriculture.

Farmers use technology to determine exactly what crops need, where they need it and when they need it.

In aquaculture, the goal is to determine:

What do the fish need?

How much feed do they need?

Are they healthy?

Is the water suitable?

Is the equipment working correctly?

The more accurately these questions can be answered, the more efficiently the farm may operate.

One Important Research Area: Fish Feeding

Feed is one of the most important parts of aquaculture.

Fish need nutrients to grow, but providing excessive feed can waste money and increase environmental impacts.

If fish consume less feed than expected, uneaten feed can enter the surrounding environment.

Therefore, scientists and farmers are highly interested in Feed Conversion Ratio (FCR).

FCR broadly describes how much feed is required to produce a given amount of fish biomass.

For example, if a farm uses 1.2 kilograms of feed to produce 1 kilogram of fish biomass, the FCR would be approximately 1.2.

A lower FCR generally indicates more efficient conversion of feed into fish biomass, although comparisons need to consider the species, feed formulation, production system and measurement method.

This is an important scientific and economic concept.

Better feed efficiency can potentially mean:

Less feed waste + lower production costs + reduced resource use + lower environmental pressure

This is one reason why aquaculture research does not focus only on fish growth.

It also focuses heavily on what the fish eat and how efficiently they use it.

The Hidden Environmental Question: What Happens to Fish Waste?

Whenever thousands of fish are concentrated in one location, waste becomes an important issue.

Fish produce waste through their metabolism, and uneaten feed can also contribute to organic material entering the surrounding environment.

If waste accumulates excessively beneath or around a farm, it may alter local environmental conditions.

This is why researchers study the carrying capacity of marine environments.

Carrying capacity refers broadly to the amount of farming activity an ecosystem can support without unacceptable environmental degradation.

This means a farm cannot simply keep increasing the number of fish indefinitely.

Scientists may monitor:

Sediment conditions

Oxygen levels

Nutrient concentrations

Benthic organisms

Plankton

Water quality

Fish populations

Marine biodiversity

The objective is to determine whether the farming operation is staying within environmentally acceptable limits.

A Major Scientific Project: The Mediterranean Aquaculture Research

Researchers have been investigating the environmental impacts of marine aquaculture for decades.

One important example comes from the European Union, where scientists have conducted numerous research projects on sustainable aquaculture, carrying capacity, fish nutrition, environmental monitoring and marine ecosystem interactions.

Projects under EU research programmes have examined how aquaculture can be developed while reducing environmental impacts and improving resource efficiency.

These projects are important because offshore aquaculture cannot be evaluated simply by asking:

“How many fish can we produce?”

Researchers must also ask:

“How many fish can we produce without causing unacceptable environmental damage?”

That is a much more difficult scientific question.

The European Aquaculture Technology and Innovation Projects

Europe has become one of the world's major research centres for advanced aquaculture.

Organizations and research institutions have worked on:

Automated feeding

Underwater robotics

Fish health

Alternative feeds

Environmental monitoring

Cage technology

Digital aquaculture

Disease prevention

Sustainable production

One particularly interesting development is the use of robotics.

Underwater robots can potentially inspect cage nets, detect damage, monitor fish and collect environmental data.

This can reduce the need for humans to perform dangerous underwater inspections.

In the future, a fish farm may increasingly resemble a combination of:

A biological laboratory + marine engineering facility + data centre + food production system.

Norway: A Global Laboratory for Marine Aquaculture

If you want to understand the development of offshore fish farming, Norway is one of the countries worth studying.

Norway has a huge coastline and a highly developed salmon aquaculture industry.

Norwegian researchers, companies and government institutions have spent decades investigating how marine aquaculture can be made more productive and sustainable.

The country has also experimented with increasingly exposed aquaculture locations.

Why?

Because traditional coastal areas have limited space.

As the industry expands, moving farms farther offshore could potentially reduce conflicts with coastal activities and take advantage of greater water exchange.

But it introduces a new problem:

The farther you move offshore, the harsher the environment becomes.

Waves become stronger.

Weather becomes more difficult.

Transport becomes more expensive.

Maintenance becomes harder.

Emergency response becomes more challenging.

So offshore aquaculture is essentially a trade-off between environmental opportunity and engineering difficulty.

China's Large-Scale Marine Aquaculture Experiments

China has also invested heavily in marine aquaculture technology.

The country has developed large-scale offshore aquaculture systems and experimented with advanced cage designs, automation and remote monitoring.

One of the most interesting developments has been the use of large semi-submersible or deep-water aquaculture platforms.

These structures are designed to operate in deeper waters and withstand challenging marine conditions.

China's work demonstrates an important direction for the industry:

Moving from simple coastal cages toward larger, more technologically advanced offshore systems.

The objective is not merely to put more fish into the ocean.

It is to develop systems capable of managing fish production in environments where conventional aquaculture equipment may not be suitable.

What Happens If Farmed Fish Escape?

This is one of the biggest environmental concerns associated with aquaculture.

If farmed fish escape from cages, they may interact with wild fish populations.

The consequences depend heavily on the species, location, genetics, ecosystem and scale of the escape.

Potential concerns include:

Competition with wild fish

Predation

Disease transmission

Genetic interactions

Changes in local ecosystems

This is particularly important when farmed fish are not native to the region.

Therefore, cage design and maintenance are critical.

Modern aquaculture systems need to minimize the risk of escape through:

Strong nets + secure mooring + regular inspections + storm preparation + emergency response systems

This is another reason why offshore aquaculture requires both biological knowledge and engineering expertise.

A Real-World Example: Atlantic Salmon Escapes

Norway provides a useful real-world example of why fish escapes are taken seriously.

Atlantic salmon farming has experienced escape incidents over the years, and researchers have studied the possible effects of farmed salmon interacting with wild populations.

The issue became important enough that Norway developed extensive monitoring and management systems related to aquaculture escapes.

Scientific research has examined whether escaped farmed salmon can reproduce with wild salmon and potentially influence the genetic characteristics of wild populations.

This research demonstrates an important principle:

Sustainable aquaculture is not simply about producing fish efficiently. It is also about managing what happens outside the farm.

Can Offshore Fish Farming Reduce Pressure on Wild Fisheries?

Potentially, yes — but the answer is complicated.

If farmed fish can provide part of the world's seafood demand, aquaculture can reduce the need to obtain all seafood through wild capture.

But farmed fish still require resources.

Some farmed species historically depend on fishmeal and fish oil made from wild-caught fish.

This creates an interesting paradox:

If we farm fish to reduce pressure on wild fisheries, but feed those fish large amounts of wild-caught fish, how sustainable is the system?

Scientists have spent years trying to solve this problem.

Aquaculture nutrition research has explored alternative ingredients such as:

Plant-based proteins

Algae

Insects

Microalgae oils

Fermented ingredients

Novel protein sources

The goal is to produce nutritious fish feed while reducing dependence on finite marine resources.

This is one of the most exciting areas of aquaculture research today.

The Rise of Alternative Fish Feed

Researchers are increasingly studying ingredients that could replace some traditional marine-based feed ingredients.

One example is insect meal.

Insects can convert organic material into protein efficiently, and scientists have investigated species such as the black soldier fly (Hermetia illucens) as a potential ingredient for animal and aquaculture feeds.

Another promising area is microalgae.

Microalgae can produce oils rich in nutrients such as omega-3 fatty acids, potentially providing alternatives to some fish oils traditionally used in aquaculture feed.

These technologies are still being refined, and their environmental and economic performance varies depending on production methods.

But they illustrate the direction in which aquaculture research is moving:

Produce more fish while using fewer scarce resources.

Why This Matters for Sri Lanka

This global research is particularly relevant to Sri Lanka.

As an island nation, Sri Lanka has access to a large marine environment.

At the same time, the country needs:

Food security

Employment opportunities

Export industries

Sustainable resource use

New technology

Investment

Scientific innovation

Marine aquaculture could potentially contribute to several of these areas.

But Sri Lanka also needs to ensure that marine development does not damage the ecosystems upon which coastal communities and fisheries depend.

That means future development must be based on:

Scientific research + environmental monitoring + strong regulation + responsible business practices

This is where projects such as Oceanpick become educationally valuable.

They allow us to see how a global scientific and economic challenge can be explored through a Sri Lankan initiative.

Oceanpick's Trincomalee Connection

The selection of Trincomalee is also important.

Trincomalee is internationally known for its natural harbour and extensive surrounding marine environment.

For marine aquaculture, location is critical.

A suitable site needs the right combination of:

Water depth

Water circulation

Temperature

Salinity

Weather conditions

Wave exposure

Accessibility

Environmental characteristics

Oceanpick's early project plans identified the Trincomalee region as an appropriate location for developing offshore marine fish farming.

The project therefore connected one of Sri Lanka's most important natural marine regions with an emerging global industry.

A Fascinating Fact: The Ocean Is Doing Part of the Work

One of the most interesting concepts behind offshore aquaculture is that the ocean itself provides some of the conditions required for production.

In a closed tank, operators need to constantly manage water quality.

They may need mechanical filtration, oxygenation, water exchange and other systems.

In an offshore cage, the surrounding ocean provides continuous water movement.

That does not eliminate the need for monitoring.

Instead, it changes the role of technology.

The technology must ensure that the farm is placed in a suitable location and that the cage remains safe while the natural marine environment provides much of the water exchange.

This is a fascinating example of working with nature rather than completely replacing it with machines.

But Is Open-Ocean Aquaculture Really the Future?

There is no simple answer.

Offshore aquaculture has significant potential, but it also has significant challenges.

Potential advantages include:

Large marine space

Stronger water exchange

Potentially lower pressure on crowded coastal areas

Increased seafood production

Potential contribution to food security

Opportunities for technological innovation

Potential economic and employment benefits

Major challenges include:

High investment costs

Severe weather

Strong waves and currents

Difficult maintenance

Feed costs

Fish disease

Escapes

Environmental monitoring

Transportation

Energy requirements

Regulatory complexity

Therefore, the future of offshore aquaculture will depend on whether technology, science and management can solve these challenges economically and environmentally.

The Future: Fish Farms Could Become Smart Ocean Farms

The next generation of aquaculture may look very different from the fish farms of the past.

Imagine an offshore farm where:

Underwater cameras continuously monitor fish.

Artificial intelligence analyzes their behaviour.

Sensors measure water conditions every few seconds.

Automated feeders deliver precise quantities of feed.

Robotic systems inspect nets and structures.

Satellites and weather models predict storms.

Digital platforms track the fish from production to consumer.

This is not simply science fiction.

Many components of this technology are already being researched, tested or deployed in different forms around the world.

The long-term goal is precision aquaculture — producing the right amount of food with the minimum necessary use of resources and the lowest practical environmental impact.

The Bigger Lesson Behind the Technology

The most important lesson from offshore fish farming may not actually be about fish.

It is about how humans can use science and innovation to rethink traditional industries.

For generations, the basic model was:

Go to the ocean → Catch fish → Bring them to shore.

Aquaculture introduced another model:

Raise fish → Manage their growth → Harvest them.

Offshore aquaculture takes the idea even further:

Use the natural marine environment → Combine it with technology → Produce seafood under controlled conditions.

And the next stage could be:

Use sensors + AI + robotics + biotechnology + renewable energy → Create highly efficient smart ocean farms.

That is where the story becomes truly fascinating.

From a Fish Farm to a Global Sustainability Experiment

Oceanpick's journey is therefore not simply about one Sri Lankan company producing Barramundi.

It is part of a much larger global experiment.

Scientists, engineers, entrepreneurs and policymakers are all trying to answer the same fundamental question:

How can we produce more food for a growing population without destroying the natural environment that sustains us?

The answer will require more than one industry.

It will require new ideas in agriculture, aquaculture, energy, biotechnology, waste management, logistics and environmental science.

Sri Lanka's Oceanpick story shows that even a relatively small country can participate in this global effort.

And its international recognition in 2025 shows that innovative ideas developed in Sri Lanka can gain attention far beyond the island's shores.

But there is still another fascinating side to this story.

How much fish can the ocean actually support? What does the research say about carbon emissions from aquaculture? Can farmed fish really be more sustainable than wild-caught fish? What are the environmental costs of feed production? And what could Oceanpick's future look like as Sri Lanka moves toward a stronger Blue Economy?

Those questions take us even deeper into the science, economics and future of sustainable seafood.

Can Fish Farming Really Be Environmentally Friendly?

When we hear the words “sustainable fish farming,” it is natural to wonder whether fish farming can genuinely be good for the environment.

After all, raising thousands of fish in one location requires feed, boats, equipment, transportation, refrigeration, electricity and other resources.

So how can it be called sustainable?

The answer is not that aquaculture has zero environmental impact.

Instead, sustainability is about asking a more complicated question:

Can we produce the food society needs while keeping environmental impacts within acceptable limits and continuously reducing them?

This distinction is extremely important.

No large-scale food production system is completely impact-free.

The real challenge is to understand the environmental footprint of different systems and find ways to make them more efficient.

This is where scientific research becomes extremely valuable.

What Does “Sustainable Aquaculture” Actually Mean?

Sustainable aquaculture generally involves balancing three major areas:

Environmental Sustainability

The farm should minimize unacceptable damage to marine ecosystems, water quality and biodiversity.

Economic Sustainability

The business must be financially viable enough to continue operating and supporting workers, suppliers and communities.

Social Sustainability

The industry should contribute positively to people and communities while managing conflicts over marine resources.

This is sometimes described as the three pillars of sustainability:

Environment + Economy + Society

If one of these collapses, the entire system can become difficult to sustain.

A fish farm that protects the environment but continually loses money cannot operate indefinitely.

A highly profitable farm that severely damages ecosystems cannot be considered genuinely sustainable.

And a successful business that creates serious conflicts with local communities can also face long-term difficulties.

Therefore, sustainable aquaculture requires all three dimensions to be considered together.

How Much Carbon Does Fish Farming Produce?

One of the most important questions surrounding modern food production is carbon emissions.

Every food system produces greenhouse-gas emissions.

Emissions can come from:

Feed production

Electricity

Fuel

Boats

Refrigeration

Processing

Packaging

Transportation

Infrastructure

Waste management

Aquaculture is no exception.

However, research has shown that the carbon footprint of seafood can vary enormously depending on the species and production method.

A 2018 study published in the journal Nature by Ray Hilborn and colleagues examined greenhouse-gas emissions from different food production systems.

The researchers compared emissions from various animal protein sources and found that seafood production methods can have substantially different environmental footprints.

This is important because saying “fish is sustainable” or “fish farming is bad for the environment” is far too simplistic.

The correct question is:

Which fish, produced where, using which method, with what feed, energy source and supply chain?

That is a much more scientific way of looking at sustainability.

A Major Global Study: Seafood and Greenhouse Gas Emissions

One of the widely cited studies on seafood emissions was published in 2021 in Nature Scientific Reports by researchers including Richard Parker and colleagues.

The study examined the greenhouse-gas emissions associated with various seafood production systems.

The researchers found major differences among species and production methods.

For example, some forms of aquaculture can have relatively low emissions compared with many terrestrial livestock systems, while others can have substantially higher impacts depending on feed and energy use.

This reinforces an important lesson:

There is no single environmental footprint for “fish.”

A farmed species fed with highly efficient feed and produced using renewable electricity can have a very different footprint from another farm relying heavily on energy-intensive inputs.

Therefore, sustainable seafood research increasingly looks at the entire life cycle of a product.

What Is a Life-Cycle Assessment?

A Life-Cycle Assessment (LCA) is a scientific method used to evaluate environmental impacts across the life of a product.

For a farmed fish, researchers might examine:

Feed production → Fish farming → Harvesting → Processing → Refrigeration → Packaging → Transportation → Consumer

This approach prevents researchers from focusing on only one stage.

For example, a fish farm might have relatively low direct emissions but use feed ingredients that require substantial resources to produce.

Another farm might use highly efficient feed but consume significant amounts of fossil fuel for transportation.

Life-cycle assessment attempts to consider the entire chain.

This is extremely relevant to Oceanpick because the company's sustainability claims cannot be evaluated simply by looking at the fish cage.

The entire supply chain matters.

Feed Can Be One of the Biggest Sustainability Questions

One of the most interesting parts of aquaculture is something that most consumers never see:

Fish feed.

Fish need protein, fats, vitamins, minerals and energy to grow.

Producing these nutrients also requires resources.

Historically, some aquaculture feeds have relied heavily on fishmeal and fish oil, which are produced from fish caught from the ocean.

This creates an obvious question:

If we are farming fish to reduce pressure on wild fisheries, why should we use wild fish to feed farmed fish?

Scientists have been working on this problem for decades.

Research has explored replacing some marine ingredients with alternatives such as:

Soy protein

Pea protein

Wheat-based ingredients

Insect meal

Algae

Microalgae oils

Fermented proteins

Other novel ingredients

The goal is not necessarily to eliminate marine ingredients completely in every situation.

Instead, scientists are trying to find feed combinations that provide good fish growth and health while reducing the pressure on limited resources.

A Fascinating Concept: Fish-In Fish-Out

Aquaculture researchers sometimes use concepts such as Fish-In Fish-Out (FIFO) to examine how much wild-caught fish is required to produce farmed fish.

Historically, the concept was particularly important for species such as salmon, where fishmeal and fish oil were major components of feed.

Over time, improvements in feed efficiency and alternative ingredients have changed the picture.

The key idea is simple:

The more efficiently farmed fish convert feed into edible fish, the less resource-intensive the system can become.

This is why Feed Conversion Ratio is so important.

If researchers can improve fish growth while reducing the amount of marine-derived ingredients needed, aquaculture can potentially become more resource-efficient.

The Rise of Algae-Based Fish Feed

One of the most exciting areas of research is the use of microalgae.

Microalgae are tiny photosynthetic organisms that can produce valuable nutrients, including certain omega-3 fatty acids.

Traditionally, marine omega-3 oils used in aquaculture feed have often been obtained from fish oil.

But scientists have investigated whether algae could provide some of these nutrients without requiring wild fish to be harvested for their oil.

This could be particularly important for species that require long-chain omega-3 fatty acids.

Researchers and companies in countries including the United States, Norway, Germany, the Netherlands and other European nations have investigated algae-based ingredients for aquaculture.

The technology is still developing, but it represents an interesting direction:

Instead of taking nutrients from the ocean and giving them to farmed fish, could we produce some of those nutrients through controlled biological systems?

Could Insects Help Feed the World's Fish?

Another surprising research area is insect protein.

Yes — scientists are seriously studying insects as fish feed.

Species such as the black soldier fly can convert organic material into protein-rich biomass.

Researchers have tested insect-based ingredients in feeds for different aquaculture species.

The potential advantages include:

High protein content

Efficient biological conversion

Potential use of certain organic by-products

Reduced dependence on some conventional feed ingredients

However, insect farming also requires energy, water, feed substrates and processing.

So researchers need to evaluate the entire life cycle rather than assuming insect protein is automatically sustainable.

This is a recurring theme in environmental science:

A solution is only sustainable when the complete system is considered.

What About the Carbon Footprint of Oceanpick?

Oceanpick has publicly described its sustainability strategy and its movement toward Net Zero.

The company has identified a series of emissions-related milestones, including greenhouse-gas measurement, establishing emissions baselines, verification and longer-term targets.

Its published roadmap includes:

2023 – Begin GHG emissions data collection

2024 – Establish Scope 1, Scope 2 and Scope 3 emissions baseline

2025 – GHG verification and carbon-neutrality initiatives

2026 – Science Based Targets initiative (SBTi) target development

2030 – Near-term Net Zero target

2040 – Carbon neutrality

2050 – Net Zero across relevant emissions scopes

These targets are important because they move the sustainability conversation from general statements toward measurement and deadlines.

But there is an important distinction.

A target is not the same thing as achieving the target.

A company may announce a future Net Zero goal, but the real test is whether emissions are actually measured, reduced and independently verified over time.

This is why the next decade will be particularly important for evaluating the progress of such sustainability roadmaps.

What Are Scope 1, Scope 2 and Scope 3 Emissions?

These terms are often used in corporate sustainability reports.

But what do they actually mean?

Scope 1

These are direct emissions from sources owned or controlled by the company.

For example, fuel burned directly by company-owned equipment can contribute to Scope 1 emissions.

Scope 2

These are indirect emissions associated with purchased energy, particularly electricity, steam, heating or cooling.

If a company buys electricity from a fossil-fuel-heavy grid, some associated emissions are counted under Scope 2.

Scope 3

This category is much broader.

It includes other indirect emissions throughout the company's value chain.

For an aquaculture company, this could involve areas such as:

Feed production + purchased goods + transportation + business activities + processing + distribution

Scope 3 can therefore be one of the most complicated categories to measure.

This is why establishing a proper emissions baseline is an important first step in a Net Zero strategy.

Why Net Zero Is Particularly Difficult for Seafood Companies

Imagine a fish farm located offshore.

The fish may grow in seawater, but the operation still needs:

Boats

Fuel

Feed

Equipment

Maintenance

Refrigeration

Processing

Packaging

Distribution

If fish are exported internationally, transportation can add another layer to the supply chain.

Therefore, becoming Net Zero is not simply about changing the electricity used at an office.

It requires examining the entire business ecosystem.

This is where Scope 3 accounting becomes particularly important.

A company may reduce emissions in its own facilities while still having substantial emissions embedded in purchased feed, transport and other parts of the supply chain.

Could Offshore Aquaculture Help Food Security?

This may be one of the most important questions of all.

The world's population continues to require large quantities of nutritious food.

Fish and other aquatic foods provide:

High-quality protein

Essential fatty acids

Vitamins

Minerals

Other important nutrients

Aquatic foods can therefore play an important role in global nutrition.

The FAO's research shows that aquaculture has become increasingly important in supplying aquatic foods to the world's population.

This is particularly important because wild fisheries cannot simply expand forever.

In many places, fishing pressure has already placed stress on marine ecosystems.

Therefore, aquaculture can potentially provide an additional source of seafood without requiring all additional production to come from wild capture.

But again, the method matters.

The objective is not simply:

“Produce more fish.”

It is:

“Produce more nutritious food while using resources responsibly and protecting ecosystems.”

Aquaculture and the Sustainable Development Goals

The global importance of sustainable aquaculture also connects with the United Nations Sustainable Development Goals (SDGs).

Several SDGs are particularly relevant.

SDG 2 – Zero Hunger

Sustainable aquatic food production can contribute to food availability and nutrition.

SDG 8 – Decent Work and Economic Growth

Aquaculture can create jobs and economic opportunities.

SDG 12 – Responsible Consumption and Production

Efficient use of resources and responsible production systems are central to sustainable aquaculture.

SDG 13 – Climate Action

Reducing greenhouse-gas emissions is increasingly important for the entire food sector.

SDG 14 – Life Below Water

This is particularly relevant because aquaculture operates within or around marine ecosystems.

A responsible marine industry must help ensure that economic activity does not undermine ocean health.

The Blue Economy Opportunity for Sri Lanka

For Sri Lanka, the Oceanpick story becomes even more significant when viewed through the concept of the Blue Economy.

Sri Lanka is an island nation positioned in the Indian Ocean.

Its geographic location provides access to:

Marine resources

Fisheries

Shipping routes

Coastal tourism

Marine biodiversity

Ports

Offshore opportunities

But having access to the ocean does not automatically create economic success.

The country needs knowledge, technology, investment, regulation, infrastructure and skilled workers.

This is where innovative businesses can play an important role.

A successful marine aquaculture industry could potentially contribute to:

Local employment

Seafood exports

Technology transfer

Research and development

Foreign investment

Food security

Value-added seafood products

Marine-sector entrepreneurship

The opportunity is therefore much larger than fish farming alone.

Could Sri Lanka Become a Regional Aquaculture Hub?

Sri Lanka's geographical position could potentially provide opportunities for developing a stronger marine aquaculture sector.

The country is located near major Indian Ocean shipping routes and has access to regional seafood markets.

If infrastructure, technology, research capabilities and regulatory frameworks develop further, Sri Lanka could potentially serve both domestic and international markets.

However, becoming a regional aquaculture hub would require much more than one successful company.

It would require an ecosystem involving:

Universities

Marine research institutes

Government agencies

Fisheries authorities

Private companies

Investors

Engineers

Biologists

Veterinarians

Feed producers

Logistics companies

Exporters

This is how successful industries are built.

One company can demonstrate an idea, but an entire ecosystem is needed to build an industry.

Why Research Institutions Matter

A modern aquaculture industry cannot depend only on entrepreneurs.

It needs scientific research.

Universities and research institutions can study:

Native fish species

Disease control

Fish genetics

Feed development

Ocean conditions

Climate change

Marine ecosystems

Water quality

Fish nutrition

Environmental carrying capacity

This research can then help companies make better decisions.

The relationship can become a cycle:

Research → Innovation → Commercial Application → New Data → More Research → Better Technology

This is one of the foundations of a modern knowledge economy.

Climate Change Creates a New Challenge

Climate change makes marine aquaculture even more complicated.

Ocean temperatures are changing.

Marine heatwaves are becoming a growing concern in many regions.

Ocean acidification is occurring as seawater absorbs carbon dioxide from the atmosphere.

Extreme weather events can create greater risks for coastal infrastructure.

These changes can influence:

Fish growth

Fish health

Disease patterns

Feed requirements

Ocean oxygen levels

Cage safety

Farm location suitability

Therefore, the fish farms of the future may need to be designed not only for today's ocean.

They may need to be designed for the ocean conditions expected decades from now.

This is why climate modelling and long-term environmental monitoring are becoming increasingly important.

The Ocean Is Changing — Can Aquaculture Adapt?

This is one of the most important research questions for the future.

A fish species that performs well under today's conditions may experience different growth or health outcomes if water temperatures change significantly.

Researchers are therefore studying:

Which species are resilient?

Which strains can tolerate environmental variation?

Can farming systems be moved to more suitable areas?

Can technology protect fish during extreme conditions?

Can feed formulations be adjusted?

Can early-warning systems predict environmental stress?

The future of aquaculture may depend partly on how successfully the industry adapts to a changing climate.

A Remarkable Global Trend: Aquaculture Has Overtaken Capture Fisheries

One of the most fascinating statistics in modern fisheries history comes from the FAO's 2024 State of World Fisheries and Aquaculture report.

In 2022, global aquaculture production of aquatic animals reached approximately 94.4 million tonnes.

This was the first time aquaculture surpassed capture fisheries in terms of aquatic animal production globally.

This represents a historic turning point.

For thousands of years, humans primarily obtained aquatic animals by catching them.

Now, humanity has entered an era where farming aquatic animals produces more than fishing from the wild.

That shift has enormous implications.

It means aquaculture is no longer a niche industry.

It has become a major component of the global food system.

What This Global Statistic Means for Sri Lanka

This global transition creates both an opportunity and a responsibility for Sri Lanka.

If the world increasingly depends on aquaculture for seafood, countries with marine resources and suitable climates could potentially develop new industries.

But competition will also increase.

Countries will compete through:

Technology

Quality

Food safety

Sustainability

Traceability

Production efficiency

Export standards

This means Sri Lanka cannot simply produce fish.

It must aim to produce high-quality, traceable and responsibly produced seafood.

That is where Oceanpick's model becomes particularly relevant.

Why Traceability Could Become a Competitive Advantage

Imagine buying a fish fillet at a supermarket.

Would you prefer a product where you know:

What species it is

Where it was raised

How it was raised

When it was harvested

How it was processed

How it was transported

Or would you prefer a product with almost no information about its origin?

Modern consumers increasingly care about these questions.

Traceability can help businesses build trust and meet international food standards.

For an export-oriented Sri Lankan seafood company, this can become a major competitive advantage.

In a world where consumers increasingly care about sustainable and ethical food, knowing the story behind the product can matter almost as much as the product itself.

Oceanpick's International Recognition Was More Than a Trophy

This brings us back to the 2025 UNIDO ONE World Sustainability Awards.

Oceanpick's recognition in the Sustainable Supply Chains category is significant because it reflects the larger direction in which modern business is moving.

Sustainability is increasingly being evaluated not just by the product a company sells, but by the entire process used to create it.

That includes:

Raw materials → Production → Energy → Waste → Transportation → Packaging → Consumer

Oceanpick's recognition therefore provides a useful case study for understanding how a Sri Lankan company is attempting to position itself within this changing global economy.

What Irfan Thassim's Story Teaches Young Entrepreneurs

The Oceanpick story also has an important educational dimension.

Young entrepreneurs sometimes believe that they need to create a business in an already crowded industry.

But innovation often comes from asking a different question.

Instead of asking:

“What business can I start?”

A more powerful question might be:

“What problem can I solve?”

In Oceanpick's case, the larger problem involves questions such as:

How can seafood production increase?

How can pressure on wild fisheries be reduced?

How can Sri Lanka use its marine environment more effectively?

How can a business combine profitability with sustainability?

These are much larger questions than simply asking how to sell a product.

And solving large problems can sometimes create entirely new industries.

The Entrepreneurial Lesson: Think Globally, Build Locally

Oceanpick's journey also illustrates another important principle:

A business does not need to start in a global superpower to solve a global problem.

The company began in Sri Lanka.

Its natural environment was Sri Lankan.

Its challenges were local.

But the questions it attempted to address are global:

Food security.

Sustainable seafood.

Climate change.

Ocean conservation.

Responsible production.

This is an important lesson for students and young entrepreneurs.

A local problem can sometimes contain a solution that has international relevance.

What Could the Future of Oceanpick Look Like?

The future remains open, but the direction of the industry provides some interesting possibilities.

Future offshore aquaculture could involve:

Smart Cages

Cages equipped with sensors and automated monitoring systems.

AI-Based Fish Monitoring

Computer vision could help detect fish behaviour, health problems and feeding patterns.

Robotic Inspection

Underwater robots could inspect nets, anchors and structures.

Alternative Feed

Algae, insects and other novel ingredients could reduce pressure on conventional feed resources.

Renewable Energy

Solar, wind and other renewable energy systems could potentially reduce dependence on fossil fuels in parts of the operation.

Better Carbon Accounting

Businesses could increasingly measure emissions throughout their entire supply chains.

Offshore Expansion

As technology improves, more aquaculture could potentially move farther offshore.

These developments could make fish farming increasingly automated, data-driven and environmentally controlled.

Could Sri Lanka's Ocean Become a Classroom for Future Innovation?

There is another fascinating way to look at the story.

Sri Lanka's ocean could become more than a source of fish.

It could become a living laboratory for marine innovation.

Researchers could investigate:

Climate-resilient aquaculture

Tropical marine species

Sustainable feed

Marine robotics

Ocean monitoring

Carbon reduction

Blue biotechnology

Marine conservation

Smart aquaculture

Universities, entrepreneurs and research institutions could collaborate to develop solutions specifically suited to tropical Indian Ocean conditions.

If that happens, Sri Lanka could potentially contribute not just seafood, but knowledge and technology to the international aquaculture sector.

The Bigger Picture: From Oceanpick to a New Generation of Sri Lankan Innovation

The story of Oceanpick should therefore not be reduced to:

“A Sri Lankan company farms fish in the sea.”

The deeper story is about a country attempting to participate in a rapidly changing global industry.

It involves:

Marine science

Entrepreneurship

Engineering

Food security

Climate action

Sustainable supply chains

Technology

International cooperation

Blue Economy development

And perhaps most importantly:

The courage to attempt something that had not been widely done in the region before.

That is what makes the story educational.

It demonstrates that innovation is not merely about having a brilliant idea.

Innovation also requires:

Research + investment + patience + experimentation + partnerships + risk-taking + continuous improvement.

A Final Question Before We Move Forward

The story of Oceanpick raises a much larger question about Sri Lanka's future.

Sri Lanka is surrounded by one of the world's great oceans.

The country has fisheries, ports, coastal communities, marine biodiversity, tourism opportunities and a strategic location in the Indian Ocean.

So what happens if Sri Lanka learns to use these resources more intelligently?

Could the country build a stronger Blue Economy?

Could sustainable aquaculture become a significant export industry?

Could Sri Lankan marine research create technologies used internationally?

Could young Sri Lankan entrepreneurs develop the next generation of ocean-based businesses?

And perhaps most importantly:

Can Sri Lanka develop its ocean economy without sacrificing the health of the ocean itself?

That final question is where the true meaning of sustainability begins.

Because the ultimate goal should never be to simply take more from the ocean.

The goal should be to understand the ocean better, use its resources responsibly, protect its ecosystems, and create opportunities that can continue for generations.

Oceanpick's story provides one fascinating example of that much larger challenge.

But there is still one major part of the story left.

A Small Island That Entered a Global Industry

When we look at the world's major aquaculture-producing nations, some names appear repeatedly: China, India, Indonesia, Vietnam, Norway, Chile and other countries with large-scale fisheries and aquaculture industries.

Sri Lanka is much smaller than many of these countries.

Yet the country has something that cannot be measured simply by land area:

A strategic location in the Indian Ocean and a large marine environment.

That gives Sri Lanka an opportunity to participate in the growing global Blue Economy.

Oceanpick is one example of an attempt to turn that opportunity into a commercial and technological venture.

But there are many fascinating facts behind the broader story of marine aquaculture.

Did You Know Aquaculture Is Older Than You Might Think?

Fish farming is not a new invention.

Humans have been managing aquatic animals for thousands of years.

One of the earliest well-known examples comes from ancient China, where people developed methods for raising carp.

The famous Chinese agricultural text “Fan Li's Fish Culture Classic”, traditionally associated with Fan Li, is believed to date back to approximately 5th century BCE.

The text is traditionally considered one of the earliest known writings about fish culture.

This means the basic idea of raising fish rather than simply catching them is more than 2,000 years old.

But modern offshore aquaculture is dramatically different.

Ancient fish farmers could not use:

Satellites

Underwater cameras

Digital sensors

Artificial intelligence

Automated feeders

Modern marine engineering

Computerized environmental monitoring

Modern aquaculture therefore represents an extraordinary combination of an ancient idea and modern technology.

The Global Aquaculture Revolution

One of the most important facts about modern seafood production is that aquaculture has expanded enormously over recent decades.

According to the FAO's 2024 State of World Fisheries and Aquaculture report, global fisheries and aquaculture production reached a record 223.2 million tonnes in 2022.

This included approximately:

185.4 million tonnes of aquatic animals

and

37.8 million tonnes of algae.

The report also showed that aquaculture produced approximately 94.4 million tonnes of aquatic animals in 2022.

This was a historic moment.

For the first time, aquaculture surpassed capture fisheries in the production of aquatic animals globally.

In other words:

Humanity now produces more aquatic animals through farming than it catches from the wild.

This is one of the most important changes in the history of global food production.

China Is the World's Aquaculture Giant

If there is one country that dominates global aquaculture, it is China.

China has developed an enormous aquaculture industry covering freshwater, coastal and marine production.

The country's dominance is so large that developments in global aquaculture cannot be discussed without considering China's role.

China has invested heavily in:

Fish farming

Shellfish farming

Marine cages

Aquaculture technology

Research

Processing

Export infrastructure

Large-scale offshore systems

This provides an interesting comparison for Sri Lanka.

Sri Lanka cannot compete with China simply by producing enormous volumes.

Instead, the country may need to focus on:

Quality + sustainability + traceability + premium seafood + innovation + niche markets

This is a valuable business lesson.

A smaller country does not always need to compete on quantity.

It can compete on value.

Norway Shows How Seafood Can Become a High-Value Industry

Another country worth studying is Norway.

Norway has built a globally recognized aquaculture industry, particularly around Atlantic salmon.

Norwegian aquaculture demonstrates how a country can transform marine resources into a sophisticated economic sector involving:

Scientific research

Genetics

Feed technology

Marine engineering

Processing

Logistics

Exporting

Digital monitoring

The Norwegian experience is particularly relevant to Sri Lanka because both are coastal nations where the ocean plays an important role in economic activity.

However, their marine environments are dramatically different.

Sri Lanka's tropical Indian Ocean conditions create different opportunities and challenges.

This means Sri Lanka cannot simply copy Norway.

Instead, it must develop solutions suited to its own environment.

Chile: Aquaculture as an Export Industry

Chile provides another interesting example.

The country has developed a major salmon farming industry and has become one of the world's important seafood exporters.

Chile's experience also demonstrates the challenges that accompany large-scale aquaculture.

The country has experienced debates and research relating to:

Disease

Antibiotic use

Escapes

Environmental impacts

Coastal ecosystem management

Industry regulation

This provides an important lesson for countries developing aquaculture industries:

Growth without proper environmental management can create long-term problems.

Therefore, Sri Lanka can learn not only from the successes of international aquaculture leaders, but also from the challenges they have experienced.

Aquaculture Is Not Just About Fish

When people hear “aquaculture,” they often think only about fish.

But aquaculture is much broader.

It can involve:

Fish

Shrimp

Oysters

Mussels

Clams

Seaweed

Algae

Other aquatic organisms

In fact, algae production represents a major component of global aquatic production.

This opens up another potential opportunity for countries such as Sri Lanka.

The future Blue Economy may not depend only on selling fish.

It could also involve:

Seaweed-based foods

Marine biotechnology

Nutraceutical ingredients

Cosmetics

Pharmaceutical research

Biofuels

Animal feed

Biodegradable materials

This is why the ocean is increasingly being viewed as a source of knowledge and innovation, not simply raw materials.

What Makes Barramundi So Interesting?

Barramundi (Lates calcarifer) has become an increasingly popular aquaculture species in several parts of the world.

It is naturally associated with the Indo-Pacific region and can tolerate a range of environmental conditions.

This makes it particularly interesting for tropical and subtropical aquaculture.

It is also a commercially attractive food fish.

Its mild flavour and firm white flesh have helped it gain popularity in food markets.

From an aquaculture perspective, however, the most important question is not whether consumers like it.

Researchers also need to consider:

How quickly does it grow?

What temperatures does it tolerate?

How efficiently does it convert feed?

How resistant is it to disease?

Can it be produced economically?

Can it be farmed without unacceptable environmental impacts?

The answers to these questions determine whether a species is suitable for commercial farming.

A Fascinating Biological Fact About Barramundi

Barramundi has a remarkable reproductive characteristic.

The species is known as a protandrous hermaphrodite.

This means that individuals typically mature first as males and later in life can change sex and function as females.

This is an extraordinary example of how nature adapts reproductive strategies to environmental and population conditions.

It also shows why aquaculture requires biological knowledge.

Farmers cannot treat all fish species in exactly the same way.

Every species has its own:

Growth patterns + reproductive biology + nutritional requirements + environmental tolerances + disease risks

Understanding those characteristics is essential to successful farming.

The Hidden Science of Fish Growth

Fish growth is influenced by many variables.

Among the most important are:

Temperature

Fish are ectothermic animals, meaning their body temperature is influenced by their surrounding environment.

Temperature can affect metabolism, feeding and growth.

Oxygen

Fish require dissolved oxygen in the water for respiration.

Nutrition

Protein, fats, vitamins, minerals and energy are essential for healthy growth.

Genetics

Different strains can have different growth characteristics and disease resistance.

Density

Too many fish in a small area can increase stress and environmental pressure.

Water Quality

Poor water conditions can negatively affect health and growth.

This is why aquaculture is essentially a biological management science.

The farmer is not simply “growing fish.”

The farmer is managing an entire living system.

Why Fish Density Matters

Imagine placing 10 people in a large room.

Now imagine putting the same 10 people into a tiny room.

The number of people has not changed.

But the environment has.

Fish farming has a similar principle.

If too many fish are kept in a limited space, competition, stress, waste and disease risks can increase.

Therefore, stocking density is a major consideration in aquaculture.

Farm managers need to balance:

Production efficiency

against

Fish welfare

and

Environmental capacity

Higher density is not automatically better.

The objective is to find a level that allows fish to grow efficiently without creating unacceptable health or environmental problems.

Fish Welfare Is Becoming More Important

Another growing area of research is fish welfare.

For a long time, public discussion about animal welfare focused mainly on land animals.

Today, scientists are increasingly examining fish welfare as well.

Researchers study questions such as:

Do fish experience stress?

How can handling be improved?

What stocking densities are appropriate?

How can transportation stress be reduced?

How should fish be harvested?

How can disease be prevented without unnecessary treatments?

This is important because modern sustainability is not only about the environment.

It increasingly includes animal welfare and responsible production practices.

A Major Research Field: Fish Stress

Fish respond to environmental stressors through physiological changes.

Stress can occur due to:

Poor water quality

Excessive temperature

Handling

Transportation

High stocking density

Lack of oxygen

Sudden environmental changes

Researchers can measure stress using biological indicators, including changes in hormones and physiological responses.

This research helps aquaculture operators understand when fish may be experiencing harmful conditions.

The goal is to identify problems before they become major health or mortality events.

This is another reason why continuous monitoring is becoming increasingly important.

Could AI Detect Fish Stress Before Humans Do?

This is one of the exciting possibilities of modern aquaculture.

Fish behaviour can change when environmental conditions become unsuitable.

For example, changes in:

Swimming patterns

Feeding behaviour

Group movement

Position in the water column

Activity levels

may provide clues about fish health or environmental stress.

Artificial intelligence and computer vision systems can potentially analyze these behavioural patterns.

A human observer may not notice a subtle change in thousands of fish.

But an AI system continuously analyzing video could potentially identify unusual patterns.

If the technology becomes sufficiently accurate, it could provide early warnings.

That could allow farmers to investigate problems before they become serious.

The Future May Involve Underwater Robots

Underwater robotics is another exciting field connected to aquaculture.

A robot could potentially:

Inspect nets

Detect holes

Examine cage structures

Monitor fish

Collect environmental data

Capture underwater images

Assist with maintenance

This could be especially valuable in offshore farms.

Why?

Because offshore conditions can be dangerous for humans.

Strong currents, deep water, poor visibility and bad weather can make underwater inspections difficult.

Robots could potentially perform some tasks without putting workers at unnecessary risk.

Satellites Could Also Help Fish Farms

It may sound surprising, but satellite technology can also contribute to marine aquaculture.

Satellites can provide information about:

Sea surface temperature

Ocean colour

Weather conditions

Ocean productivity

Coastal changes

Large-scale environmental patterns

When satellite data is combined with local sensors and oceanographic models, it can help create a more complete picture of marine conditions.

This is particularly useful for planning and risk management.

The future of aquaculture could therefore involve data coming from:

Satellites + Buoys + Sensors + Cameras + Robots + AI

All of these systems can feed information into one digital ecosystem.

The Internet of Things Is Entering Aquaculture

The Internet of Things (IoT) refers to physical devices that can collect and exchange data through digital networks.

In aquaculture, IoT technology could connect:

Water sensors

Feeders

Cameras

Weather stations

GPS systems

Equipment monitors

Environmental monitoring devices

Imagine a farm manager receiving a warning on a smartphone:

“Dissolved oxygen decreasing.”

Or:

“Abnormal fish feeding behaviour detected.”

Or:

“Storm conditions expected within 12 hours.”

This could allow faster decision-making.

In other words, aquaculture is increasingly becoming a data-driven industry.

The Unexpected Connection Between Aquaculture and Space Technology

There is a fascinating broader connection here.

Many of the technologies used to monitor oceans have also been developed or improved through advances in satellite science and remote sensing.

The same basic idea applies:

You cannot manage what you cannot observe.

For a fish farm located far offshore, constant physical observation is difficult.

Remote sensing and digital monitoring allow operators and scientists to observe conditions without physically being everywhere at once.

This is a powerful example of how technologies developed for one purpose can eventually benefit another industry.

A Major Challenge: Storms and Extreme Weather

Offshore fish farms face one enormous challenge that land-based farmers understand very differently:

The weather can become the farm's biggest enemy.

A severe storm can produce:

Massive waves

Strong currents

High winds

Equipment damage

Fish stress

Fish escapes

Supply-chain interruptions

This is why marine engineering is so important.

The cage system must be designed for the conditions expected at its location.

The stronger the environment, the stronger and more expensive the infrastructure may need to be.

Climate change adds another layer of uncertainty because extreme weather patterns may become more difficult to predict.

Why Trincomalee Is Strategically Interesting

Oceanpick's association with Trincomalee is particularly interesting because of the area's marine geography.

Trincomalee is home to one of the world's notable natural harbours.

The surrounding region offers access to deep waters and a large marine environment.

For an offshore aquaculture operation, these geographical characteristics can be valuable.

But a suitable location must be evaluated scientifically.

A beautiful marine environment is not automatically a suitable aquaculture site.

Researchers must examine:

Currents + depth + temperature + oxygen + salinity + waves + seabed + biodiversity + environmental carrying capacity

Only when these factors are understood can a site be responsibly developed.

Could Offshore Aquaculture Help Coastal Communities?

Aquaculture can potentially create economic opportunities for coastal communities.

These may include:

Farm workers

Boat operators

Technicians

Fish health specialists

Processing workers

Transport operators

Engineers

Feed suppliers

Packaging companies

Export businesses

The economic effect can therefore extend beyond the farm itself.

A successful aquaculture industry creates a value chain.

For every fish produced, there may be multiple businesses involved in:

Feed → Farming → Harvesting → Processing → Cold storage → Packaging → Transportation → Retail

This means the economic value of aquaculture can be considerably larger than the value of the fish alone.

The Cold Chain: The Invisible Part of Seafood Quality

One part of seafood production that consumers rarely think about is the cold chain.

Fish is highly perishable.

Once harvested, maintaining the right temperature becomes critical.

A cold chain can include:

Harvest → Chilling → Processing → Cold storage → Refrigerated transport → Retail

If temperature control fails at any stage, food quality and safety can be affected.

This means a successful fish farming company needs much more than a good cage.

It needs a reliable logistics system.

This is one reason why modern aquaculture is really a combination of:

Farming + Food Science + Logistics + Technology + Marketing

Why Traceability Matters for Exports

International seafood markets often require strict food safety and quality standards.

Exporters may need to demonstrate information about:

Product origin

Processing

Handling

Food safety

Storage conditions

Production methods

Traceability can help businesses meet these requirements.

For Sri Lanka, this could be particularly important if the country wants to increase premium seafood exports.

A product that can demonstrate a clear origin and responsible production story can potentially have stronger appeal in markets where consumers are increasingly concerned about sustainability.

A Business Lesson: Don't Sell Only a Product — Sell Trust

This is a powerful marketing lesson hidden inside the Oceanpick story.

Imagine two seafood products.

Product A says:

“Fish Fillet.”

Product B says:

“Responsibly farmed Sri Lankan Barramundi, traceable from marine farm to consumer.”

The second product communicates a story.

Modern consumers increasingly care about:

Origin

Quality

Safety

Sustainability

Authenticity

Therefore, traceability can become more than a regulatory requirement.

It can become part of a brand's value proposition.

Could Sri Lankan Seafood Become a Premium Brand?

Sri Lanka already has an international reputation for several products, including:

Ceylon Tea

Ceylon Cinnamon

Gemstones

Coconut products

Spices

Seafood

The word “Ceylon” itself carries historical recognition in many markets.

Could Sri Lankan aquaculture eventually develop a similar premium identity?

Possibly — but it would require consistency.

A successful premium seafood brand would need:

Quality + Food Safety + Traceability + Reliable Supply + Sustainability + Strong Branding

One successful farm cannot create this reputation by itself.

But it can demonstrate what is possible.

The Educational Lesson for Students

The Oceanpick story is particularly useful for students because it demonstrates how multiple school subjects can connect to one real-world project.

Science

Students can learn about fish biology, ecosystems and environmental science.

Geography

Students can study Sri Lanka's coastline, oceans and marine resources.

Mathematics

Production data, growth rates, feed conversion and financial planning require mathematics.

Information Technology

Sensors, AI, databases and digital monitoring are increasingly important.

Business Studies

The project involves investment, marketing, supply chains, exports and entrepreneurship.

Environmental Studies

Sustainability and climate change are central to the industry.

Engineering

Cage structures, mooring systems and underwater equipment require engineering.

A single fish farm can therefore become a real-world classroom connecting multiple subjects.

The Entrepreneurial Lesson for Young Sri Lankans

There is another important message for young people.

When someone says:

“That cannot be done here.”

The correct response should not always be to immediately believe them.

Instead, ask:

“Why can't it be done?”

Then investigate.

Research.

Study international examples.

Talk to experts.

Calculate the costs.

Test the idea.

Learn from failure.

Improve the model.

This is how innovation develops.

Oceanpick's story illustrates this mindset particularly well.

The concept of commercial offshore fish farming may have been unusual in Sri Lanka, but that did not mean it was impossible.

The Importance of Patience in Innovation

One of the biggest misconceptions about entrepreneurship is that success happens overnight.

Oceanpick was founded in 2012.

Its offshore aquaculture development continued through subsequent years.

International recognition came much later, including its 2025 UNIDO ONE World Sustainability Awards recognition.

That represents more than a decade between the company's founding and major international recognition.

This provides an important lesson:

Innovation often takes years before the world notices it.

Behind a successful project there may be:

Failed experiments

Financial challenges

Regulatory hurdles

Technical problems

Research

Partnerships

Delays

Revisions

Learning

The final success story often looks simple.

The actual journey rarely is.

A Lesson for Businesses: Sustainability Is a Long-Term Strategy

Another important lesson from Oceanpick's sustainability roadmap is that environmental responsibility needs measurable targets.

A company can say:

“We care about the environment.”

But a stronger approach is:

“Here is our baseline.”

“Here is what we measured.”

“Here is our reduction target.”

“Here is our deadline.”

“Here is how progress will be verified.”

This is the difference between a general sustainability statement and a measurable sustainability strategy.

For businesses around the world, this distinction is becoming increasingly important.

What Can Other Countries Learn From Sri Lanka?

The Oceanpick story is not only something Sri Lanka can learn from other countries.

Other countries can also learn from Sri Lanka.

Sri Lanka has tropical marine conditions that differ from those in Norway, Chile or northern Europe.

Developing aquaculture solutions for these conditions can generate knowledge relevant to other tropical countries.

Potentially, innovations developed for the Indian Ocean could be adapted for:

South Asia

Southeast Asia

East Africa

Island nations

Tropical coastal economies

This is where local innovation can become internationally valuable.

The Ocean Economy Could Be Bigger Than Fish

When people hear “Blue Economy,” they often think about fishing.

But the future could be much bigger.

Imagine a Sri Lankan marine economy involving:

Sustainable aquaculture

Seaweed farming

Marine biotechnology

Ocean data

Marine robotics

Renewable offshore energy

Eco-tourism

Research

Seafood processing

Marine pharmaceuticals

Blue carbon

These industries could potentially interact with one another.

For example, marine research could support aquaculture.

Aquaculture could create demand for technology.

Technology companies could develop sensors.

Universities could train specialists.

Export companies could build international markets.

This is how a Blue Economy ecosystem can emerge.

What Is Blue Carbon?

One particularly fascinating area connected to the Blue Economy is Blue Carbon.

Blue Carbon refers broadly to carbon captured and stored in coastal and marine ecosystems such as:

Mangroves

Salt marshes

Seagrass meadows

These ecosystems can store significant amounts of carbon.

For an island nation such as Sri Lanka, protecting these habitats is important not only for biodiversity but also for climate mitigation and coastal resilience.

This creates an important distinction:

Using the ocean sustainably is only one side of the Blue Economy.

The other side is protecting the ocean's natural systems.

A successful Blue Economy should ideally strengthen both.

A Surprising Connection: Mangroves and Fish Farming

Mangroves provide nursery habitats for many marine organisms.

They also help protect coastlines from erosion and storms.

This means that marine development and ecosystem conservation cannot be treated as completely separate subjects.

If coastal ecosystems decline, fisheries and other marine industries can also suffer.

Therefore, sustainable aquaculture must exist within a broader strategy for protecting marine biodiversity.

This is why environmental impact assessment and ecosystem monitoring are so important.

What Happens If Aquaculture Grows Too Quickly?

Growth can create its own problems.

If aquaculture expands faster than governments can regulate it, several risks may appear.

These could include:

Poorly selected farm locations

Excessive stocking densities

Weak disease controls

Environmental degradation

Conflicts with fishermen

Marine-space conflicts

Uncontrolled expansion

Poor waste management

Therefore, governance is as important as technology.

A country needs clear rules about:

Where farms can operate

How many farms can be established

How environmental impacts are measured

What happens when standards are violated

How local communities are consulted

How farms are monitored

A strong regulatory system protects both the environment and responsible businesses.

The Future May Belong to “Smart and Sustainable” Aquaculture

The next generation of aquaculture will probably not be judged solely by how many tonnes of fish it produces.

It may increasingly be evaluated using multiple indicators:

How much feed is used?

How much carbon is emitted?

How much water is consumed?

How healthy are the fish?

How much waste is generated?

How much energy is renewable?

How transparent is the supply chain?

How well is biodiversity protected?

This could create a new generation of smart, measured and accountable aquaculture.

And this is where the story of Oceanpick becomes particularly interesting.

It is not simply a story about farming fish.

It is a story about trying to develop a modern food system that combines production with environmental responsibility.

10 Fascinating Facts to Remember

Here are some of the most interesting facts connected to this story:

1.

Oceanpick was founded in Sri Lanka in 2012 by entrepreneur Irfan Thassim.

2.

Its development focused on offshore marine finfish farming, with Trincomalee playing an important role.

3.

Oceanpick has described its system as South Asia's first offshore aquaculture system.

4.

The company's early commercial project plans involved approximately US$2.5 million in investment.

5.

The project had an eventual production ambition of approximately 1,000 tonnes per year.

6.

One of the company's important species is Barramundi / Asian Sea Bass (Lates calcarifer).

7.

Barramundi is known for a fascinating biological characteristic: it is protandrous, meaning individuals generally mature first as males and later can function as females.

8.

The FAO reported that global aquaculture produced approximately 94.4 million tonnes of aquatic animals in 2022, surpassing capture fisheries for the first time.

9.

In 2025, Oceanpick was recognized among the Top Five in the Sustainable Supply Chains category of the UNIDO ONE World Sustainability Awards.

10.

Oceanpick has published long-term sustainability targets extending toward Net Zero by 2050.

The Most Important Fact Is Not a Number

The statistics are impressive.

The technology is fascinating.

The international recognition is encouraging.

But perhaps the most important lesson is much simpler:

Innovation begins when someone is willing to question the way things have always been done.

For generations, seafood production depended heavily on catching fish from the wild.

Aquaculture changed that.

Modern offshore aquaculture is attempting to take the idea even further.

And Sri Lanka has chosen to participate in that transformation.

Irfan Thassim's Oceanpick journey therefore represents more than a business story.

It represents an experiment in whether a small island nation can use its ocean resources, scientific knowledge and entrepreneurial ambition to participate in one of the world's most important future industries.

The experiment is still continuing.

And the most interesting chapter may still be ahead.

What Could Happen Next?

Imagine Sri Lanka in the future with:

AI-controlled fish farms

Robotic underwater inspections

Renewable-energy-powered marine operations

Algae-based fish feed

Advanced climate monitoring

Carbon-neutral seafood supply chains

Premium Sri Lankan seafood exports

Marine biotechnology startups

University-led ocean research

A thriving Blue Economy

That future is not guaranteed.

It will depend on investment, scientific research, environmental protection, policy, skilled people and responsible entrepreneurship.

But the fact that Sri Lankan innovators are already experimenting in this field means that the country does not have to remain merely an observer of the global Blue Economy.

It can become a participant.

And perhaps one day, Sri Lanka may be known not only for the beauty of its ocean, but also for the innovations it developed to protect and responsibly use it.

One Entrepreneur, One Company, One Much Bigger Message

At first glance, the story of Irfan Thassim and Oceanpick may seem like a story about a company that farms fish.

But when we look closer, it becomes a story about something much larger:

Can entrepreneurship solve environmental problems?

Can science create new industries?

Can technology make food production more sustainable?

Can an island nation turn its geographical position into an economic advantage?

Can economic growth and ocean conservation exist together?

These are questions that will matter not only to Sri Lanka, but to the entire world.

And that is why this story deserves to be remembered.

Because sometimes the most powerful global ideas do not begin in the world's biggest countries.

Sometimes they begin with one person asking:

“What if we tried something different?”

And from that question, an entirely new possibility can begin. 🌊🐟🇱🇰

Why This Story Matters Beyond Oceanpick

By now, it should be clear that the story of Irfan Thassim and Oceanpick is much bigger than the story of one company producing fish.

It is a story about innovation, science, entrepreneurship, sustainability and national potential.

Sri Lanka is a relatively small country compared with the world's largest economies. But geography does not determine the size of a nation's ideas.

An island surrounded by the Indian Ocean has something extraordinarily valuable:

The ocean itself.

The challenge is learning how to use that resource without destroying the very ecosystems that make it valuable.

That is the central challenge of the Blue Economy.

And Oceanpick provides an interesting Sri Lankan case study of what can happen when entrepreneurship meets marine science and sustainability.

The Ocean Is Not an Unlimited Resource

One of the most important lessons from modern fisheries research is that the ocean cannot simply be treated as an endless source of food.

Wild fish populations can be affected by:

Overfishing

Climate change

Habitat degradation

Pollution

Changes in ocean temperature

Ocean acidification

Illegal and unregulated fishing

This does not mean that wild fisheries are unimportant.

Quite the opposite.

Wild fisheries remain essential for millions of people around the world.

But it does mean that humanity needs multiple approaches to producing aquatic food.

This is where responsible aquaculture can become part of the solution.

Aquaculture Is Not a Magic Solution

It is equally important not to romanticize fish farming.

Aquaculture can create environmental problems if it is poorly designed or poorly managed.

Potential concerns include:

Disease transmission

Fish escapes

Waste accumulation

Feed-related environmental impacts

Habitat disturbance

Chemical or pharmaceutical use

Conflicts over marine space

Energy consumption

Therefore, the correct question is not:

“Is aquaculture good or bad?”

The better question is:

“Which aquaculture systems can produce food while keeping environmental and social impacts within responsible limits?”

This distinction is essential for understanding the future of sustainable seafood.

The Science Behind Responsible Aquaculture

A modern aquaculture operation needs scientific knowledge at almost every stage.

Before establishing a farm, researchers may examine:

Water depth

Temperature

Salinity

Dissolved oxygen

Currents

Wave conditions

Seabed characteristics

Marine biodiversity

Carrying capacity

Disease risks

The farm then needs continued monitoring.

This means sustainable aquaculture is not simply agriculture moved into the sea.

It is a multidisciplinary field combining:

Marine biology + Engineering + Environmental science + Data science + Veterinary science + Food technology + Business

That is one reason why this industry can create opportunities for people from many educational backgrounds.

What Research Has Taught Us About Seafood Sustainability

Research conducted around the world has repeatedly demonstrated that the environmental footprint of seafood varies significantly according to species and production system.

Studies comparing food systems have found that some forms of aquaculture can have relatively low greenhouse-gas emissions compared with certain terrestrial livestock systems, while other forms can be more resource-intensive.

Researchers therefore increasingly use Life-Cycle Assessment (LCA) to evaluate seafood.

This considers the entire chain rather than looking only at the farm.

For example:

Feed production → Farming → Harvest → Processing → Refrigeration → Packaging → Transport

This approach provides a more realistic picture.

It also explains why sustainability cannot be judged simply by looking at a fish swimming inside a cage.

The Feed Question Will Shape the Future

Feed remains one of the most important areas of aquaculture research.

Scientists continue to investigate alternatives and improvements involving:

Algae

Insect protein

Plant proteins

Fermentation-derived ingredients

Novel oils

Improved fishmeal and fish-oil efficiency

The objective is to produce healthy fish while reducing unnecessary pressure on other natural resources.

This could become particularly important as global aquaculture continues to expand.

If aquaculture becomes a major source of the world's seafood, the sustainability of the feed industry becomes just as important as the sustainability of the farms themselves.

A New Era of Precision Aquaculture

Agriculture is increasingly moving toward precision farming, where technology helps farmers make decisions based on real-time data.

Aquaculture is moving in a similar direction.

Future farms can potentially use:

Sensors

Artificial intelligence

Computer vision

Automated feeding

Satellite data

Robotics

Predictive analytics

These technologies could help farmers understand exactly what is happening inside and around a farm.

Instead of feeding fish based only on routine schedules, an intelligent system could potentially adjust feeding according to:

Fish behaviour + Water conditions + Temperature + Growth stage + Feed response

This could reduce wasted feed and improve efficiency.

The Role of Artificial Intelligence

Artificial intelligence could eventually transform aquaculture in several ways.

Fish Counting

AI-powered cameras can potentially estimate the number and size of fish.

Behaviour Monitoring

Computer vision can detect unusual swimming patterns.

Feeding Optimization

Algorithms can analyze feeding behaviour and help reduce overfeeding.

Disease Detection

AI may eventually help identify visual signs of disease before they become widespread.

Environmental Prediction

Models can combine weather and ocean data to forecast risky conditions.

Maintenance

AI systems could analyze equipment data and predict potential failures.

This is a powerful example of how a traditional biological industry can become a high-tech industry.

Why Data May Become as Valuable as Fish

In the future, successful aquaculture companies may depend heavily on data.

Consider how much information could be generated by one modern farm:

Fish growth rates

Feed consumption

Water temperature

Oxygen levels

Salinity

Weather

Currents

Fish behaviour

Disease indicators

Equipment performance

Energy consumption

Carbon emissions

When these datasets are analyzed over years, they can help scientists and businesses understand what works and what does not.

That means a modern fish farm could become something like a living laboratory.

Could Sri Lanka Build an Ocean Innovation Ecosystem?

This is where the Oceanpick story becomes especially interesting for Sri Lanka.

Imagine a future where:

A university studies marine biology.

A technology company develops underwater sensors.

An engineering company develops stronger offshore structures.

A software company builds AI monitoring systems.

A feed company develops sustainable ingredients.

A seafood company produces premium fish.

A logistics company develops cold-chain solutions.

And the government establishes science-based marine policies.

Together, these organizations could create an ocean innovation ecosystem.

That would be far more valuable than simply increasing fish production.

It would create knowledge, skilled employment and intellectual property.

The Opportunity for Sri Lankan Universities

Sri Lankan universities could potentially play a major role in this future.

Research areas could include:

Marine biology

Aquaculture genetics

Fish nutrition

Oceanography

Marine engineering

Robotics

Artificial intelligence

Climate science

Environmental monitoring

Food technology

Marine biotechnology

The result could be a new generation of graduates whose skills are directly connected to the country's geographical advantage.

A New Career Path for Students

For students reading this article, there is an important message.

The future of the ocean will not belong only to fishermen.

It will also need:

Marine biologists

Aquaculture specialists

Engineers

Data scientists

Software developers

AI specialists

Veterinarians

Food scientists

Environmental scientists

Marketing professionals

Accountants

Entrepreneurs

Logistics specialists

Researchers

This means students who are interested in science, technology, business or the environment can potentially find careers within the Blue Economy.

What Young Entrepreneurs Can Learn From Irfan Thassim

There are several entrepreneurial lessons hidden in this story.

1. Start With a Problem

Successful innovation often begins with a problem rather than a product.

2. Think Beyond the Local Market

A Sri Lankan business can solve problems that matter internationally.

3. Use Science

Not every business decision should be based on assumptions.

Research can reduce uncertainty.

4. Be Patient

Large innovations can take many years before they become commercially successful.

5. Accept Complexity

The bigger the problem, the more disciplines may need to work together.

6. Build Partnerships

Entrepreneurs do not have to solve everything alone.

7. Measure Results

Sustainability should increasingly be demonstrated through data.

These lessons apply far beyond aquaculture.

They apply to almost every modern industry.

A Lesson About Being From a Small Country

There is another message worth remembering.

Young Sri Lankans sometimes compare their country with much larger nations and conclude that international success is reserved for people born elsewhere.

But history repeatedly shows that innovation can come from unexpected places.

A country's size does not determine the ambition of its people.

Sri Lanka has produced internationally recognized achievements in:

Tea

Cinnamon

Gemstones

Cricket

Science

Technology

Entrepreneurship

And increasingly, innovative marine industries.

The lesson is not that Sri Lanka is already a global leader in everything.

It is that being a small country does not make global ambition impossible.

Why the 2025 UNIDO Recognition Matters

Oceanpick's recognition at the 2025 ONE World Sustainability Awards, organized under the United Nations Industrial Development Organization (UNIDO), is particularly meaningful because it places the company's sustainability efforts in an international context.

The awards attracted applications from around the world, and Oceanpick was recognized among the leading organizations in the Sustainable Supply Chains category.

That recognition should not be interpreted as proof that every aspect of offshore aquaculture is automatically sustainable.

Instead, it demonstrates that a Sri Lankan company working on sustainable seafood production has gained international attention.

And that itself is significant.

It shows that innovative projects originating in Sri Lanka can enter global conversations about:

Climate

Food systems

Sustainability

Supply chains

Technology

Recognition Is the Beginning, Not the End

Awards can create visibility.

But the more important challenge comes afterward.

The real test is whether a company can continue to:

Reduce emissions

Improve efficiency

Maintain fish health

Protect marine ecosystems

Improve traceability

Develop sustainable feed

Maintain product quality

Expand responsibly

Meet measurable targets

This is why long-term monitoring is more important than a single award.

Sustainability is not an event.

It is a process.

What Does Net Zero Actually Mean?

The term Net Zero is often used in business and environmental discussions.

But it does not simply mean:

“Produce no emissions.”

In general terms, Net Zero involves reducing greenhouse-gas emissions as deeply as possible and addressing the remaining unavoidable emissions through appropriate measures consistent with credible climate strategies.

For a company, reaching Net Zero can therefore involve:

Measuring emissions → Reducing emissions → Changing energy sources → Improving efficiency → Addressing remaining emissions

This is why a Net Zero target must be accompanied by a credible pathway.

A distant target alone is not enough.

The difficult work happens in the years between the baseline and the deadline.

Why 2050 Is an Important Date

Many companies and governments around the world have established 2050 as a long-term Net Zero target.

Oceanpick has also published a long-term roadmap extending toward Net Zero by 2050.

But 2050 may sound far away.

Consider this:

A student beginning university today could potentially be a senior professional by 2050.

A child entering school today could be in the middle of their career.

That means Net Zero is not really about an abstract future.

It is about the world in which today's young generation will live and work.

What Could Sri Lanka's Ocean Look Like in 2050?

Imagine looking at Sri Lanka in 2050.

Perhaps offshore aquaculture has expanded.

Perhaps renewable energy is more common.

Perhaps AI monitors marine farms continuously.

Perhaps underwater robots perform routine inspections.

Perhaps seafood products carry detailed digital traceability records.

Perhaps marine biotechnology has created new industries.

Perhaps Sri Lanka exports not only seafood but also marine technology.

But there is another possibility.

If marine development is poorly managed, Sri Lanka could face:

Degraded ecosystems

Loss of biodiversity

Pollution

Climate-related damage

Declining fish populations

Conflicts over marine resources

The future is therefore not guaranteed.

The decisions made today will influence which version becomes reality.

The Most Important Principle: Development Without Destruction

The ultimate objective of a Blue Economy should not be:

“How much can we take from the ocean?”

It should be:

“How much value can we create while keeping the ocean healthy?”

That is a completely different philosophy.

Instead of seeing the ocean as a warehouse of resources, we should see it as a living system.

Healthy oceans support:

Food

Climate regulation

Biodiversity

Tourism

Coastal protection

Livelihoods

Scientific discovery

Economic opportunities

Protecting the ocean is therefore not necessarily an obstacle to economic development.

It can be the foundation of long-term economic development.

A Powerful Lesson From Nature

Nature rarely works through one isolated system.

Everything is connected.

Fish depend on ecosystems.

People depend on fish.

Businesses depend on people.

Communities depend on healthy environments.

Economies depend on businesses.

And future generations depend on the decisions made today.

This is why sustainability requires us to think beyond immediate profit.

A business can generate income today.

But a sustainable business asks:

“Can this continue for 10 years, 20 years or 50 years without destroying the resources it depends on?”

That is the deeper meaning of sustainability.

What Oceanpick Means for Sri Lanka

Oceanpick should therefore be viewed as more than a fish farming company.

It represents an example of what can happen when a Sri Lankan entrepreneur attempts to combine:

Business

Marine science

Technology

Food production

Sustainability

International markets

The company may face challenges in the future, just as every complex business does.

But the importance of the story lies partly in the fact that someone attempted something ambitious in the first place.

The Bigger Message for Sri Lanka

Sri Lanka does not need to become a giant country to become a significant country.

It needs to become a country that is:

Innovative

Knowledge-driven

Scientifically capable

Environmentally responsible

Entrepreneurial

Globally connected

A country surrounded by the Indian Ocean should not ignore the opportunities beneath and beyond its waters.

But it also cannot exploit them recklessly.

The ideal future lies somewhere between those two extremes:

Innovation without destruction.

Economic growth without environmental neglect.

Technology without losing respect for nature.

A Story That Should Inspire Students

For students, perhaps the most inspiring part of this story is not the size of the business or the international award.

It is the idea that a difficult problem can become an opportunity.

The ocean presents enormous challenges.

But those challenges can also create enormous opportunities for people who are prepared to study them.

A student reading this today could one day become the person who develops:

A new sustainable fish feed

A marine AI system

An underwater robot

A low-carbon aquaculture system

A climate-resistant fish strain

A new marine biotechnology product

A better ocean monitoring system

The next major innovation may not come from today's established companies.

It may come from today's students.

Research, Innovation and Entrepreneurship Must Work Together

One of the clearest lessons from modern aquaculture is that no single discipline can solve the problem alone.

Scientists can discover new knowledge.

Engineers can create technologies.

Entrepreneurs can turn ideas into businesses.

Governments can create regulations.

Universities can educate future professionals.

Investors can provide capital.

Communities can provide local knowledge.

Consumers can influence markets through purchasing decisions.

When these groups work together, innovation becomes much more powerful.

The Ocean Could Become Sri Lanka's Next Knowledge Frontier

Sri Lanka has historically built strong identities around products such as tea, spices and gems.

The future may allow the country to add another identity:

A nation of ocean innovation.

That does not mean replacing traditional industries.

It means adding new ones.

The country could potentially develop expertise in:

Sustainable aquaculture

Marine biotechnology

Ocean engineering

Marine robotics

Blue carbon

Marine data

Sustainable seafood

Ocean conservation technology

The possibilities are enormous.

But they require investment in one thing above all:

Knowledge.

The Most Important Numbers to Remember

For readers who enjoy facts and statistics, here are some of the key numbers connected with the story:

2012 — Oceanpick was founded.

1,000 tonnes per year — A production ambition associated with the company's early offshore aquaculture plans.

94.4 million tonnes — Global aquaculture production of aquatic animals in 2022, according to the FAO.

2022 — The year aquaculture surpassed capture fisheries globally in aquatic animal production.

2025 — Oceanpick received international recognition through the UNIDO ONE World Sustainability Awards.

2030 — A near-term Net Zero target identified in Oceanpick's published sustainability roadmap.

2040 — A carbon-neutrality milestone identified in the roadmap.

2050 — The long-term Net Zero target identified in the company's roadmap.

Numbers tell us how large a project is.

But the story behind those numbers tells us why the project matters.

The Real Definition of a Global Achievement

Winning an international award is certainly an achievement.

But there is another definition of global success.

Global success means creating something that addresses a problem that exists beyond your own country.

Food security is global.

Climate change is global.

Sustainable production is global.

Ocean conservation is global.

Therefore, an innovative Sri Lankan solution in one of these areas can potentially have global relevance.

That is the bigger significance of Oceanpick.

From a Sri Lankan Idea to a Global Ocean Challenge 🌊🇱🇰

The story of Irfan Thassim and Oceanpick is ultimately not just about fish.

It is about what becomes possible when entrepreneurship, science, technology and sustainability come together.

A country may be small.

Its resources may be limited.

Its economy may face challenges.

But none of these things should prevent its people from thinking globally.

Sri Lanka is surrounded by the Indian Ocean, and that ocean represents both an enormous responsibility and an enormous opportunity. As the world's population grows and demand for nutritious food increases, aquaculture is becoming increasingly important. At the same time, climate change, overfishing, pollution and biodiversity loss remind us that the ocean cannot be treated as an unlimited resource.

This is why the future cannot simply be about producing more fish.

It must be about producing food more intelligently, efficiently and responsibly.

The research being carried out around the world — from sustainable feed and life-cycle assessments to AI-powered monitoring, marine robotics and climate-resilient aquaculture — shows that the seafood industry is entering a new technological era.

Oceanpick's journey places Sri Lanka inside that global conversation.

Its international recognition, including its appearance among the leading organizations recognized in the 2025 UNIDO ONE World Sustainability Awards, demonstrates that innovative ideas originating from Sri Lanka can attract attention beyond our borders.

But perhaps the greatest lesson is not the award.

It is the mindset.

Think beyond limitations.

Use science to solve real problems.

Turn local opportunities into global solutions.

Measure sustainability instead of merely talking about it.

Build businesses that consider the future, not only today's profits.

And above all:

Never assume that a small country must have small dreams.

The next generation of Sri Lankan students, researchers and entrepreneurs may be the ones who develop the technologies that make marine food production cleaner, smarter and more sustainable.

Perhaps one day, Sri Lanka will not simply be recognized as an island surrounded by the Indian Ocean.

Perhaps it will be recognized as a country that learned how to innovate with the ocean while protecting it.

That is the real lesson behind Oceanpick.

The ocean belongs to no single generation.

We inherit it from those who came before us, use it during our lifetime, and ultimately have a responsibility to leave it healthy enough for those who come after us.

And that is why the greatest measure of success will not be how much we can take from the ocean.

It will be how much value we can create while ensuring that the ocean remains alive, healthy and productive for generations to come. 🌊🐟🌱🇱🇰

From a small island in the Indian Ocean, one bold idea has helped demonstrate a powerful truth: global innovation does not always begin in the world's biggest nations — sometimes, it begins with someone brave enough to look at what surrounds them and imagine what could be possible.

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