Features
History and purpose of National Institute of Fundamental Studies
By Kirthi Tennakone
The National Institute of Fundamental Studies commemorated its 40th anniversary of inception, in December 2021. It is an opportunity to recollect history, highlight achievements, assess performance and identify the constraints. The legislative enactment of the Institute, 40 years ago, was a sequel of sorts about the importance of indulging in fundamental research, a discourse in Sri Lankan academia that has its beginnings in the early 1950s.
As a result of representations made to the Government by several prominent dons of the University of Ceylon, the Minister of Scientific Research at the time, M.D.H. Jayawardena appointed a committee, in 1969, to examine a proposal for the establishment of a Physico-Mathematical Institute, or Institute of Theoretical Studies, in Sri Lanka, later named the Institute of Fundamental Studies.
What prompted the Government of Sri Lanka to undertake this venture?
After World War II, developing nations were awakened to the obvious outcomes of modern physics, which originated in Europe. The political and economic impact of scientific advancements, notably electronics and nuclear energy, greatly widened the gap between the East and West. Many come to the hasty conclusion that borrowing foreign technologies and installing them in their lands would remedy the situation. Fortunately, a few visionaries correctly identified the true cause of the East-West disparity as the neglect of fundamental studies by the former.
Fundamental studies involve investigating nature for the sake of curiosity and attempting explanations, correlations and generalisations, the pattern of argument which opens the path for formulating scientific theories capable of making predictions. The West acquired electronics and nuclear energy primarily because of fundamental research with a heavy component of theory and the technology that followed was secondary.
India and Sri Lanka were positioned well ahead of other Asian countries to embark on fundamental studies, because of the exposure to science, introduced by the British. Many who received physics and mathematics education in Britain, proven persons of eminence, returned to their home countries. Homi Bhabha, who associated with leading physicists in Britain and the United States, persuaded the Indian Government to establish the Tata Institute of Fundamental Research. Dr. A.W. Mailvaganam worked in Cambridge during the time of Ernest Rutherford, who discovered the atomic structure, and returned to Sri Lanka in 1939, to assume duties as the Professor of Physics, University of Ceylon. He initiated research in cosmic ray physics in Colombo and gained international acclaim. Jayaratnam Eliezer, a student of the quantum theory pioneer Paul M. Dirac, was appointed the Professor of Mathematics 1949. At Cambridge, he won the Isaac Newton Scholarship in Mathematics. Eliezer continued research at Colombo and was foremost among those who worked on the challenging problem of introducing quantum mechanics to the theory of electricity.
Inspired by the work carried out at the University of Ceylon, Colombo, many Sri Lankans opted to study advanced physics in foreign universities. Time was ripe to consider the establishment of a separate institute for the purpose. Discussions related to the idea surfaced around the mid-1950s when Eliezer returned from the Institute of Advanced Study, Princeton, United States, after a year long sabbatical. At Princeton Eliezer worked with Robert Oppenheimer. Unfortunately, the discussions were delayed, possibly because Eliezer tendered his resignation to accept a position at the University of Malaya.
The public opinion, about fundamental science, greatly influenced the Government of Sri Lanka to consider a proposal for the establishment of an Institute for Fundamental Studies. Testing of thermonuclear weapons and how the thermionic valve in the radio was replaced by the transistor to make it less bulky amazed people. The total solar eclipse on 20 June, 1955 stoked interest in advanced science. How would you predict the eclipse so precisely? Newspapers said that Einstein’s Theory of Relativity, which is abstruse mathematics, will be tested at the time of the eclipse. People heard that the cause of inheritance was understood by adapting methods of physics into biology. I was an Eighth Grade student at the time. My father said, “You cannot comprehend nature without resorting to mathematics.” This was the scientific atmosphere in Sri Lanka in the mid-1950s.
Any discussion on the history of fundamental studies in Sri Lanka should not forget to mention those who highlighted the importance of modern science, distinguishing it from religion and traditional thinking. Kuruppumulage Jinendradasa was one of the first to talk about modern science in public forums. Abraham Kovoor explained the folly of superstition. E.W. Adikaram introduced modern science in Sinhala. Astronomer Allen Abraham Ambalavanar wrote articles on scientific topics in Tamil. Ven. Walpola Ruhula Thera argued that science and religion are two different things.
In India, Rabindranath Tagore, who vehemently attacked brutalities of colonial rule, also opposed the rise of blind nationalism, immediately after independence; pointing out that Western thinking and modern science cannot be ignored. Two Sri Lankans, Ven. Udakendawala Siri Saranankara Thera and Ven. Narawila Dhammaratana Thera (both involved in the Indian Freedom Movement and the former a student of Tagore) held similar views. These forgotten men influenced our society.
Prof. Senarath Paranavithana and the Vice Chancellor of the University of Ceylon, Sir Nicholas Attygalle, supported Prof. A.W. Mailvaganam in persuading the government of Sri Lanka, to establish an institution in Sri Lanka devoted to fundamental studies. Unfortunately, follow-up action was slow, possibly because the opening of the Peradeniya Science Faculty and two new universities (Vidyodaya and Vidyalankara) had been a priority.
In June, 1969, Minister of Scientific Research at the time, M.D.H. Jayawardena, appointed a 12 member committee, headed by Prof. Mailvaganam, to submit a proposal to establish an institution, devoted to advanced theoretical studies, in the fields of mathematics, statistics and physical sciences. The committee included professors of mathematics and physics from all the universities in Sri Lanka and Dr. V. Ramanathan of the Ministry served as the secretary. On request of the committee, Prof. P.C.B. Fernando of Vidyodaya University, Physics Department, visited Research Institutions in India to learn how they are managed. After a comprehensive study, a detailed report was presented to the Ministry, in 1970. The general consensus of the committee was that the Institute of Mathematical Sciences in Madras is a good model to copy. Accordingly, an almost exactly parallel Act was drafted.
For reasons unknown to the writer, nothing happened until the late 1970s, when President J.R. Jayewardene, instructed UGC Chairman, Stanley Kalpage, to revive the establishment of the proposed institution. The writer accompanied Prof. P.C.B Fernando to two of these meetings. A question regarding the name of the proposed institute came up. Names suggested in the proposal were ‘Institute of Theoretical Studies’ and ‘Physico-Mathematical Institute’. The writer pointed out that ‘Institute of Fundamental Studies’ would be more apt in describing the purpose of the institute, which was accepted. I sometimes regret making this suggestion. The name ‘Institute of Fundamental Studies’ instead of ‘Theoretical Studies’ permitted the organisation to entertain themes far removed from fundamental studies, in its true spirit. The draft Act was revised and the new version presented to the Parliament included life sciences as one of the themes; modern biology, indeed, has a theoretical component.
In 1981 Prof. Chandra Wickramasinghe was appointed the first Director of the Institute of Fundamental Studies. He served in this capacity until 1984 and the Institute conducted a conference on panspermia. In the inaugural speech President Jayewardene said, “The Institute would contribute to expanding of the man’s knowledge about himself and the universe around him.”
Later, President Jayewardene was disturbed by the slow progress of the Institute in meeting its objectives. Around late 1984, he requested Prof. Cyril Ponnamperuma to take up the position of Director. As an experimentalist, he was a bit apprehensive as the Institute is mandated to emphasise theoretical studies. The Board of Governors also reviewed activities and Prof. Mailvaganam kept on emphasising the necessity of pursuing the intended mandate. Being a visionary, Professor Ponnamperuma consulted two persons of eminence, Sir George Porter (Chemistry Nobel Laureate) and Abdus Salam (Physics Nobel Laureate), foreign fellows of the Institute. Both of them visited the IFS, the writer participated in the discussions, on invitation of the Director. They suggested that, at the beginning, the Institute may entertain few experimental projects to gain recognition, as theoretical studies are more challenging and take longer to mature. Prof. Ponnamperuma succeeded in this effort and stabilised the institution.
He highlighted the importance of research publications as a measure of performance.
Ponnamperuma introduced the art of conducting world class conferences. The Srinivasa Ramanujan Birth Centenary conference held at the IFS, in 1988, was an unforgettable event, attended by world renowned mathematicians. He founded the first endowed chair in Sri Lanka, funded by the entrepreneur P. Sumanasekara and obtained a JICA grant to equip laboratories. Ponnamperuma insisted that appointments in the IFS should be made on contractual basis, a proven mechanism for eliminating ‘dead wood’ and curtailing projects that turn out unsatisfactory.
Ponnamperuma wished for the Institute to engage in frontiers. When high temperature superconductivity was discovered, he encouraged research in this subject. Similarly when rumours were floating around that nuclear fusion could be achieved in a table-top experiment, he provided necessary material to test the hypothesis. Despite Ponnamperuma’s success in gaining recognition for the IFS, a number of projects far removed from the mandate were also entertained, diluting the intended theme of the Institute.
Unassuming humble persons who were dedicated to a noble cause, sometimes receive no credit, because they never resort to tactics of building an image. A person of this brand, who served the IFS, was Aries Kovoor. He held a professor ranking research position at CNRS Sorbonne, Paris. He was appointed as the Advisor on Scientific Affairs to the President, therefore a member of the Board of Governors of IFS. He constantly emphasised to the authorities that the IFS should confine itself to basic research and stressed the importance of provisions for the purpose. He succeeded in convincing the policymakers, at the time, that investment in fundamental studies, irrespective of immediate practical utility, is absolutely essential.
In 1996, the Board of Governors once again noted that the Institute had deviated from the theme of fundamental studies and instructed reorganisation of projects. The effort was only partly successful. Subsequently, the Institute moved further away from the theme of fundamental studies in the pretext of catering to projects of so-called national importance, which can be conducted more appropriately in institutions devoted to applied science.
Overall, the Institute of Fundamental Studies is a success story in creating a research culture in Sri Lanka worthy of celebration, at the time of its 40th anniversary. All the Directors, research and support staff had contributed to this effort. More, importantly, this is also the opportune time to examine the factors limiting its progress in meeting mandated objectives. Has the IFS met the intended purpose of its establishment?
Since its inception, fundamental research carried out worldwide has expanded explosively, arousing general curiosity. The elementary particle, Higgs boson, predicted to exist 50 years ago was experimentally detected in 2012; gravitational waves observed in 2015; and gene editing techniques developed during the past few years are expected to revolutionise medicine. Sri Lanka cannot turn a blind eye to such findings and insist that solar cells, batteries, fertiliser and monitoring water quality are our themes of fundamental research! Recent developments in high energy physics, cosmology, astrophysics, theoretical chemistry, computational and theoretical biology are not included in IFS research themes. These are not costly affairs. We need to provide opportunities for the younger generation to engage in challenging frontier themes.
The purpose of the IFS should not be building laboratories for every ‘triviality’ but engaging in endeavours which require more brains than sophisticated equipment. The Institute has to capture the best minds and motivate the young. When it comes to fundamental studies, mediocrity has no place. It is also the duty of the IFS to come forward against occult practices, pseudoscience and ideologies and convey that these have no rational basis but, instead, are detrimental to society. Myths about supernatural powers, alternative medicines and quackeries and implicit fertilisers continue to perpetuate.
The IFS was established for the noble cause of promoting advanced basic research to inspire the nation, with a goal of achieving a status similar to that of the Institute of Advanced Study Princeton, United States. It should be protected from intrigues of mediocrity and those with vested interests who propose dilutions of its theme. Idiotic advisers have misled the policymaker stifling the agriculture of the nation. The writer sincerely hopes that the same would not happen to the IFS.
(Based on a talk delivered on the occasion of the 40th anniversary of the National Institute of Fundamental Studies.)
Features
Ramadan 2026: Fasting hours around the world
The Muslim holy month of Ramadan is set to begin on February 18 or 19, depending on the sighting of the crescent moon.
During the month, which lasts 29 or 30 days, Muslims observing the fast will refrain from eating and drinking from dawn to dusk, typically for a period of 12 to 15 hours, depending on their location.
Muslims believe Ramadan is the month when the first verses of the Quran were revealed to the Prophet Muhammad more than 1,400 years ago.
The fast entails abstinence from eating, drinking, smoking and sexual relations during daylight hours to achieve greater “taqwa”, or consciousness of God.
Why does Ramadan start on different dates every year?
Ramadan begins 10 to 12 days earlier each year. This is because the Islamic calendar is based on the lunar Hijri calendar, with months that are 29 or 30 days long.
For nearly 90 percent of the world’s population living in the Northern Hemisphere, the number of fasting hours will be a bit shorter this year and will continue to decrease until 2031, when Ramadan will encompass the winter solstice, the shortest day of the year.
For fasting Muslims living south of the equator, the number of fasting hours will be longer than last year.
Because the lunar year is shorter than the solar year by 11 days, Ramadan will be observed twice in the year 2030 – first beginning on January 5 and then starting on December 26.

Fasting hours around the world
The number of daylight hours varies across the world.
Since it is winter in the Northern Hemisphere, this Ramadan, people living there will have the shortest fasts, lasting about 12 to 13 hours on the first day, with the duration increasing throughout the month.
People in southern countries like Chile, New Zealand, and South Africa will have the longest fasts, lasting about 14 to 15 hours on the first day. However, the number of fasting hours will decrease throughout the month.

[Aljazeera]
Features
The education crossroads:Liberating Sri Lankan classroom and moving ahead
Education reforms have triggered a national debate, and it is time to shift our focus from the mantra of memorising facts to mastering the art of thinking as an educational tool for the children of our land: the glorious future of Sri Lanka.
The 2026 National Education Reform Agenda is an ambitious attempt to transform a century-old colonial relic of rote-learning into a modern, competency-based system. Yet for all that, as the headlines oscillate between the “smooth rollout” of Grade 01 reforms and the “suspension of Grade 06 modules,” due to various mishaps, a deeper question remains: Do we truly and clearly understand how a human being learns?
Education is ever so often mistaken for the volume of facts a student can carry in his or her head until the day of an examination. In Sri Lanka the “Scholarship Exam” (Grade 05) and the O-Level/A-Level hurdles have created a culture where the brain is treated as a computer hard drive that stores data, rather than a superbly competent processor of information.
However, neuroscience and global success stories clearly project a different perspective. To reform our schools, we must first understand the journey of the human mind, from the first breath of infancy to the complex thresholds of adulthood.
The Architecture of the Early Mind: Infancy to Age 05
The journey begins not with a textbook, but with, in tennis jargon, a “serve and return” interaction. When a little infant babbles, and a parent responds with a smile or a word or a sentence, neural connections are forged at a rate of over one million per second. This is the foundation of cognitive architecture, the basis of learning. The baby learns that the parent is responsive to his or her antics and it is stored in his or her brain.
In Scandinavian countries like Finland and Norway, globally recognised and appreciated for their fantastic educational facilities, formal schooling does not even begin until age seven. Instead, the early years are dedicated to play-based learning. One might ask why? It is because neuroscience has clearly shown that play is the “work” of the child. Through play, children develop executive functions, responsiveness, impulse control, working memory, and mental flexibility.
In Sri Lanka, we often rush like the blazes on earth to put a pencil in the hand of a three-year-old, and then firmly demanding the child writes the alphabet. Contrast this with the United Kingdom’s “Birth to 5 Matters” framework. That initiative prioritises “self-regulation”, the ability to manage emotions and focus. A child who can regulate their emotions is a child who can eventually solve a quadratic equation. However, a child who is forced to memorise before they can play, often develops “school burnout” even before they hit puberty.
The Primary Years: Discovery vs. Dictation
As children move into the primary years (ages 06 to 12), the brain’s “neuroplasticity” is at its peak. Neuroplasticity refers to the malleability of the human brain. It is the brain’s ability to physically rewire its neural pathways in response to new information or the environment. This is the window where the “how” of learning becomes a lot more important than the “what” that the child should learn.
Singapore is often ranked number one in the Programme for International Student Assessment (PISA) scores. It is a worldwide study conducted by the Organisation for Economic Co-operation and Development (OECD) that measures the scholastic performance of 15-year-old students in mathematics, science, and reading. It is considered to be the gold standard for measuring “education” because it does not test whether students can remember facts. Instead, it tests whether they can apply what they have learned to solve real-world problems; a truism that perfectly aligns with the argument that memorisation is not true or even valuable education. Singapore has moved away from its old reputation for “pressure-cooker” education. Their current mantra is “Teach Less, Learn More.” They have reduced the syllabus to give teachers room to facilitate inquiry. They use the “Concrete-Pictorial-Abstract” approach to mathematics, ensuring children understand the logic of numbers before they are asked to memorise formulae.
In Japan, the primary curriculum emphasises Moral Education (dotoku) and Special Activities (tokkatsu). Children learn to clean their own classrooms and serve lunch. This is not just about performing routine chores; it really is as far as you can get away from it. It is about learning collaboration and social responsibility. The Japanese are wise enough to understand that even an absolutely brilliant scientist who cannot work in a team is a liability to society.
In Sri Lanka, the current debate over the 2026 reforms centres on the “ABCDE” framework: Attendance, Belongingness, Cleanliness, Discipline, and English. While these are noble goals, we must be careful not to turn “Belongingness” into just another checkbox. True learning in the primary years happens when a child feels safe enough to ask “Why?” without the fear of being told “Because it is in the syllabus” or, in extreme cases, “It is not your job to question it.” Those who perpetrate such remarks need to have their heads examined, because in the developed world, the word “Why” is considered to be a very powerful expression, as it demands answers that involve human reasoning.
The Adolescent Brain: The Search for Meaning
Between ages 12 and 18, the brain undergoes a massive refashioning or “pruning” process. The prefrontal cortex of the human brain, the seat of reasoning, is still under construction. This is why teenagers are often impulsive but also capable of profound idealism. However, with prudent and gentle guiding, the very same prefrontal cortex can be stimulated to reach much higher levels of reasoning.
The USA and UK models, despite their flaws, have pioneered “Project-Based Learning” (PBL). Instead of sitting for a history lecture, students might be tasked with creating a documentary or debating a mock trial. This forces them to use 21st-century skills, like critical thinking, communication, and digital literacy. For example, memorising the date of the Battle of Danture is a low-level cognitive task. Google can do it in 0.02 seconds or less. However, analysing why the battle was fought, and its impact on modern Sri Lankan identity, is a high-level cognitive task. The Battle of Danture in 1594 is one of the most significant military victories in Sri Lankan history. It was a decisive clash between the forces of the Kingdom of Kandy, led by King Vimaladharmasuriya 1, and the Portuguese Empire, led by Captain-General Pedro Lopes de Sousa. It proved that a smaller but highly motivated force with a deep understanding of its environment could defeat a globally dominant superpower. It ensured that the Kingdom of Kandy remained independent for another 221 years, until 1815. Without this victory, Sri Lanka might have become a full Portuguese colony much earlier. Children who are guided to appreciate the underlying reasons for the victory will remember it and appreciate it forever. Education must move from the “What” to the “So What about it?“
The Great Fallacy: Why Memorisation is Not Education
The most dangerous myth in Sri Lankan education is that a “good memory” equals a “good education.” A good memory that remembers information is a good thing. However, it is vital to come to terms with the concept that understanding allows children to link concepts, reason, and solve problems. Memorisation alone just results in superficial learning that does not last.
Neuroscience shows that when we learn through rote recall, the information is stored in “silos.” It stays put in a store but cannot be applied to new contexts. However, when we learn through understanding, we build a web of associations, an omnipotent ability to apply it to many a variegated circumstance.
Interestingly, a hybrid approach exists in some countries. In East Asian systems, as found in South Korea and China, “repetitive practice” is often used, not for mindless rote, but to achieve “fluency.” Just as a pianist practices scales to eventually play a concerto with soul sounds incorporated into it, a student might practice basic arithmetic to free up “working memory” for complex physics. The key is that the repetition must lead to a “deep” approach, not a superficial or “surface” one.
Some Suggestions for Sri Lanka’s Reform Initiatives
The “hullabaloo” in Sri Lanka regarding the 2026 reforms is, in many ways, a healthy sign. It shows that the country cares. That is a very good thing. However, the critics have valid points.
* The Digital Divide: Moving towards “digital integration” is progressive, but if the burden of buying digital tablets and computers falls on parents in rural villages, we are only deepening the inequality and iniquity gap. It is our responsibility to ensure that no child is left behind, especially because of poverty. Who knows? That child might turn out to be the greatest scientist of all time.
* Teacher Empowerment: You cannot have “learner-centred education” without “independent-thinking teachers.” If our teachers are treated as “cogs in a machine” following rigid manuals from the National Institute of Education (NIE), the students will never learn to think for themselves. We need to train teachers to be the stars of guidance. Mistakes do not require punishments; they simply require gentle corrections.
* Breadth vs. Depth: The current reform’s tendency to increase the number of “essential subjects”, even up to 15 in some modules, ever so clearly risks overwhelming the cognitive and neural capacities of students. The result would be an “academic burnout.” We should follow the Scandinavian model of depth over breadth: mastering a few things deeply is much better than skimming the surface of many.
The Road to Adulthood
By the time a young adult reaches 21, his or her brain is almost fully formed. The goal of the previous 20 years should not have been to fill a “vessel” with facts, but to “kindle a fire” of curiosity.
The most successful adults in the 2026 global economy or science are not those who can recite the periodic table from memory. They are those who possess grit, persistence, adaptability, reasoning, and empathy. These are “soft skills” that are actually the hardest to teach. More importantly, they are the ones that cannot be tested in a three-hour hall examination with a pen and paper.
A personal addendum
As a Consultant Paediatrician with over half a century of experience treating children, including kids struggling with physical ailments as well as those enduring mental health crises in many areas of our Motherland, I have seen the invisible scars of our education system. My work has often been the unintended ‘landing pad’ for students broken by the relentless stresses of rote-heavy curricula and the rigid, unforgiving and even violently exhibited expectations of teachers. We are currently operating a system that prioritises the ‘average’ while failing the individual. This is a catastrophe that needs to be addressed.
In addition, and most critically, we lack a formal mechanism to identify and nurture our “intellectually gifted” children. Unlike Singapore’s dedicated Gifted Education Programme (GEP), which identifies and provides specialised care for high-potential learners from a very young age, our system leaves these bright minds to wither in the boredom of standard classrooms or, worse, treats their brilliance as a behavioural problem to be suppressed. Please believe me, we do have equivalent numbers of gifted child intellectuals as any other nation on Mother Earth. They need to be found and carefully nurtured, even with kid gloves at times.
All these concerns really break my heart as I am a humble product of a fantastic free education system that nurtured me all those years ago. This Motherland of mine gave me everything that I have today, and I have never forgotten that. It is the main reason why I have elected to remain and work in this country, despite many opportunities offered to me from many other realms. I decided to write this piece in a supposedly valiant effort to anticipate that saner counsel would prevail finally, and all the children of tomorrow will be provided with the very same facilities that were afforded to me, right throughout my career. Ever so sadly, the current system falls ever so far from it.
Conclusion: A Fervent Call to Action
If we want Sri Lanka to thrive, we must stop asking our children, “What did you learn today?” and start asking, “What did you learn to question today?“
Education reform is not just about changing textbooks or introducing modules. It is, very definitely, about changing our national mindset. We must learn to equally value the artist as much as the doctor, and the critical thinker as much as the top scorer in exams. Let us look to the world, to the play of the Finns, the discipline of the Japanese, and the inquiry of the British, and learn from them. But, and this is a BIG BUT…, let us build a system that is uniquely Sri Lankan. We need a system that makes absolutely sure that our children enjoy learning. We must ensure that it is one where every child, without leaving even one of them behind, from the cradle to the graduation cap, is seen not as a memory bank, but as a mind waiting to be set free.
by Dr B. J. C. Perera
MBBS(Cey), DCH(Cey), DCH(Eng), MD(Paed), MRCP(UK), FRCP(Edin), FRCP(Lond), FRCPCH(UK), FSLCPaed, FCCP, Hony. FRCPCH(UK), Hony. FCGP(SL)
Specialist Consultant Paediatrician and Honorary Senior Fellow, Postgraduate Institute of Medicine, University of Colombo, Sri Lanka.
Joint Editor, Sri Lanka
Journal of Child Health]
Section Editor, Ceylon Medical Journal
Features
Giants in our backyard: Why Sri Lanka’s Blue Whales matter to the world
Standing on the southern tip of the island at Dondra Head, where the Indian Ocean stretches endlessly in every direction, it is difficult to imagine that beneath those restless blue waves lies one of the greatest wildlife spectacles on Earth.
Yet, according to Dr. Ranil Nanayakkara, Sri Lanka today is not just another tropical island with pretty beaches – it is one of the best places in the world to see blue whales, the largest animals ever to have lived on this planet.
“The waters around Sri Lanka are particularly good for blue whales due to a unique combination of geography and oceanographic conditions,” Dr. Nanayakkara told The Island. “We have a reliable and rich food source, and most importantly, a unique, year-round resident population.”
In a world where blue whales usually migrate thousands of kilometres between polar feeding grounds and tropical breeding areas, Sri Lanka offers something extraordinary – a non-migratory population of pygmy blue whales (Balaenoptera musculus indica) that stay around the island throughout the year. Instead of travelling to Antarctica, these giants simply shift their feeding grounds around the island, moving between the south and east coasts with the monsoons.
The secret lies beneath the surface. Seasonal monsoonal currents trigger upwelling of cold, nutrient-rich water, which fuels massive blooms of phytoplankton. This, in turn, supports dense swarms of Sergestidae shrimps – tiny creatures that form the primary diet of Sri Lanka’s blue whales.
- “Engineers of the ocean system”
“Blue whales require dense aggregations of these shrimps to meet their massive energy needs,” Dr. Nanayakkara explained. “And the waters around Dondra Head and Trincomalee provide exactly that.”
Adding to this natural advantage is Sri Lanka’s narrow continental shelf. The seabed drops sharply into deep oceanic canyons just a few kilometres from the shore. This allows whales to feed in deep waters while remaining close enough to land to be observed from places like Mirissa and Trincomalee – a rare phenomenon anywhere in the world.
Dr. Nanayakkara’s journey into marine research began not in a laboratory, but in front of a television screen. As a child, he was captivated by the documentary Whales Weep Not by James R. Donaldson III – the first visual documentation of sperm and blue whales in Sri Lankan waters.
“That documentary planted the seed,” he recalled. “But what truly set my path was my first encounter with a sperm whale off Trincomalee. Seeing that animal surface just metres away was humbling. It made me realise that despite decades of conflict on land, Sri Lanka harbours globally significant marine treasures.”
Since then, his work has focused on cetaceans – from blue whales and sperm whales to tropical killer whales and elusive beaked whales. What continues to inspire him is both the scientific mystery and the human connection.
“These blue whales do not follow typical migration patterns. Their life cycles, communication and adaptability are still not fully understood,” he said. “And at the same time, seeing the awe in people’s eyes during whale watching trips reminds me why this work matters.”
Whale watching has become one of Sri Lanka’s fastest-growing tourism industries. On the south coast alone, thousands of tourists head out to sea every year in search of a glimpse of the giants. But Dr. Nanayakkara warned that without strict regulation, this boom could become a curse.
“We already have good guidelines – vessels must stay at least 100 metres away and maintain slow speeds,” he noted. “The problem is enforcement.”
Speaking to The Island, he stressed that Sri Lanka stands at a critical crossroads. “We can either become a global model for responsible ocean stewardship, or we can allow short-term economic interests to erode one of the most extraordinary marine ecosystems on the planet. The choice we make today will determine whether these giants continue to swim in our waters tomorrow.”
Beyond tourism, a far more dangerous threat looms over Sri Lanka’s whales – commercial shipping traffic. The main east-west shipping lanes pass directly through key blue whale habitats off the southern coast.
“The science is very clear,” Dr. Nanayakkara told The Island. “If we move the shipping lanes just 15 nautical miles south, we can reduce the risk of collisions by up to 95 percent.”
Such a move, however, requires political will and international cooperation through bodies like the International Maritime Organization and the International Whaling Commission.
“Ships travelling faster than 14 knots are far more likely to cause fatal injuries,” he added. “Reducing speeds to 10 knots in high-risk areas can cut fatal strikes by up to 90 percent. This is not guesswork – it is solid science.”
To most people, whales are simply majestic animals. But in ecological terms, they are far more than that – they are engineers of the ocean system itself.
Through a process known as the “whale pump”, whales bring nutrients from deep waters to the surface through their faeces, fertilising phytoplankton. These microscopic plants absorb vast amounts of carbon dioxide, making whales indirect allies in the fight against climate change.
“When whales die and sink, they take all that carbon with them to the deep sea,” Dr. Nanayakkara said. “They literally lock carbon away for centuries.”
Even in death, whales create life. “Whale falls” – carcasses on the ocean floor – support unique deep-sea communities for decades.
“Protecting whales is not just about saving a species,” he said. “It is about protecting the ocean’s ability to function as a life-support system for the planet.”
For Dr. Nanayakkara, whales are not abstract data points – they are individuals with personalities and histories.
One of his most memorable encounters was with a female sperm whale nicknamed “Jaw”, missing part of her lower jaw.
“She surfaced right beside our boat, her massive eye level with mine,” he recalled. “In that moment, the line between observer and observed blurred. It was a reminder that these are sentient beings, not just research subjects.”
Another was with a tropical killer whale matriarch called “Notch”, who surfaced with her calf after a hunt.
“It felt like she was showing her offspring to us,” he said softly. “There was pride in her movement. It was extraordinary.”
Looking ahead, Dr. Nanayakkara envisions Sri Lanka as a global leader in a sustainable blue economy – where conservation and development go hand in hand.
“The ultimate goal is shared stewardship,” he told The Island. “When fishermen see healthy reefs as future income, and tour operators see protected whales as their greatest asset, conservation becomes everyone’s business.”
In the end, Sri Lanka’s greatest natural inheritance may not be its forests or mountains, but the silent giants gliding through its surrounding seas.
“Our ocean health is our greatest asset,” Dr. Nanayakkara said in conclusion. “If we protect it wisely, these whales will not just survive – they will define Sri Lanka’s place in the world.”
By Ifham Nizam
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