Features
The Beginning of “LIFE” in the universe and formation of “THE MIND”
From The Book titled ‘The Electric Field Theory of the Mind That Triggers Life’ –
by Shantha Athulathmudali
shanthaathulathmudali@outlook.com
The Introduction:
The latest theory that explains how life originated ‘on Earth’, based on microfossils discovered on extraterrestrial debris, hypothesizes the transmission of microscopic living organisms, ‘seeds of life’, from extra-terrestrial bodies on board meteoroids, asteroids, comets and other cosmic debris which after reaching the earth surface began evolution. The theory does not explain how ‘life’ forms from the beginning.
Chemical and Physical interactions for example follow a fixed set of rules determined by the action of electricity and resultant physical equilibrium form different combinations of material and energy with varying properties which are in stark contrast with the materials that combine to produce them.
For example sodium, a highly reactive metal combines with chlorine, a toxic gas to form the compound known chemically as sodium chloride, which is table salt.
What causes the change in the substances is the exchange of electricity among the participant substances sodium and chlorine. Sodium and Potassium are essentially present in the form of ions in living cells to maintain the electrolytic balance in the cell. This gives the idea, perhaps a glimpse, of the extent of the role played by electricity in a living cell. Similarly, electricity plays the major and the initiative role in the formation of ‘life’ and its subsequent evolution.
How in fact does life begin?
“Life begins with an Electric Field” in Association with Water & Botanical Material Life forms as a result of interactions of electric and magnetic field forces associating water, reacting with other external forces in a magnetic environment such as that of the earth’s magnetic field* and other energy fields and mechanical forces such as atmospheric pressure, surface tension of water and gravity. The resultant force ever competes for equilibrium with the combination and participation of other contributory physical exogenous botanical material such as moss and ‘this process’ leads to formation of ‘life’ and subsequent evolution as detailed below.
* The external magnetic field is a vital requirement for formation and evolution of life.
The Dielectric Theory
The electric field that forms ‘life’ requires a medium with the properties for generating and holding a steady electric field for a considerable duration of time. The medium must not be hostile to other exogenous material, in that its chemical content should not breakdown the chemical structure of the other materials, but contribute to originate ‘life’ at protozoan stage being conducive to formation of the required environment for generating and sustaining ‘life’ at every stage of its development as the developing ‘life’ gets chemically and physically more complex.Acidic or highly saline media for instance are hostile environments and the Dead Sea is an example of hostility to life of salinity.
Of paramount importance in the process of forming life is a medium capable of providing a dielectric, i.e. an area of space enveloped in an electric field, with amicable properties such as those of temperature, atmospheric pressure etc. The dielectric, as the second condition paramount, must contain exogenous material amiable, in contributing to formation and sustenance of ‘life’ i.e. botanic material to provide the required physicochemical environment to develop and evolution of life.The only compound which is capable of forming a dielectric comprising the required properties is WATER.
The unique role of ‘WATER’,
What does water do in originating life at the most basic form of taxonomical classification of the phylum, i.e. protozoans?
The answer lies in the ‘Electric Field’ that sets up in natural water due to self-ionization, and the associated ‘Magnetic Field’ set up by the variations of the electric field, in the earth’s magnetic field environment, contributing together to accumulate information from the other energy fields in the environment and effect changes in the exogenous material in the dielectric to gradually originate the unit that responds to light, heat, sound, physical movements and touch and to evolve into more advanced and complex forms of chemical and physical constitutions, over long periods of time to finally reach the human structure.
Molecular arrangement of pure water
Molecules in pure water, interlinked through constant exchange of electricity, about twenty billion (2 x 1013) times per second, are electrically balanced and therefore free of ions. Water, if free of exogenous material will remain electrically 3 neutral. Whereas in ordinary water, ionization takes place due to the interruption of exchange of electrons caused by exogenous material.
Two water molecules going through automatic ionization form a ‘hydroxide’ (OH-) anion, carrying a negative charge, and a ‘hydroxonium’ cation (H3O+), carrying a positive charge and the electric potential sets up an electric environment. i.e. ‘The Dielectric’.
With its high ‘relative permittivity’, called dielectric constant, varying from 88 at 00 to 55 at 1000 of centigrade, water offers the ideal condition for electro static bonds to transmit a steady electric field that hardly changes its electrical properties within the amicable temperature range.
The Dielectric Effect – Transformation by the Electric Field
A steady electric-field formed in a stagnant pool of water harboured from hazardous turbulences, so remains undisturbed, or an environment constantly wet as a rock surface by the sea moistened by the spray, a ravine, a nook constantly wet for examples are locations where undisturbed electric-fields set up. Exogenous material may consist of such chemicals as amino acids and other elements that may form due to the electrical activity in the dielectric or from the atmosphere as produced during lightening.
Ionised water molecules wrap round tiny particles of exogenous material from the dielectric and form millions of microscopic packs in its entirety. Every pack individually possesses its own electric-field termed here as ‘THE MESH’ electric-field and links to the millions of other similar packs through the dielectric electric-field.The dielectric constantly goes through changes in the environment and the resulting fluctuations working on ‘THE MESH’ electric-field constantly change its constitution and generates electric and magnetic field forces, which in association with external forces maintains equilibrium of the microscopic pack. All forces in nature strive to achieve equilibrium and settle at equilibrium.
Continuous delivery of energy on to the packs registers electric messages in the packs and the messages intensify in terms of the electric charge and maintain equilibrium with any necessary internal adjustments by the magnetic field should the supply of energy remains uninterrupted.
The packs will gradually establish a system of records corresponding the electrical changes and generate forces within the packs, in the most basic form, and maintain equilibrium.
A ‘cell’ in formation, i.e. a microscopic pack modulated with the message as explained above, when the charge it carries becomes sufficiently intense, begins responding to changes in the environment.
The system will reach a condition of being able to react to variations in energy levels by way of ‘electric signals’ in response. Subsequent energy level variations disturb the present equilibrium that will in turn disturb the electrical balance and therefore the magnetic field. Then the resulting magnetic field variations will resist because of the external magnetic force such as earth’s magnetic field, which earlier provided stability. Therefore, the external magnetic field plays a vital role in influencing the changes in the internal set up and formation of life.
Equal and opposite action of forces will constantly strive to force the system back to its earlier equilibrium. This constant effort to correct by the internal magnetic field will create a new message pertaining to the effort and be recorded in the message base. If the system does not revert to its original equilibrium, then over time, the necessary physical and or chemical changes within the cell will take place to rectify the condition i.e. to eliminate the disequilibrium. Instrumented by the electric field forces of the message records, such gradual changes are effected by the resultant changes in the magnetic field forces. In this process, demanded by the prevailing conditions, to meet the requirements of energy, a devices to intake material to internally breakdown the compound to maintain equilibrium and locomotion will develop.
Healing effects and animals such as birds and fish using magnetic fields for navigation, for instance, are facts known of magnetism. Same properties and mechanical forces created by magnetic fields come into play when there are disturbances in the cell equilibrium.This is the process, over long periods of time that brings about changes or new development in the setup of ‘life’ so as to maintain continuity of the unit with a solution to the problem, as it were, and be known as Evolution.
While this process works to develop new organs, chemical and physical constitutions etc. for equilibrium, as required by the changing conditions it also works to remove any part which earlier worked to serve the ‘life’ but is no longer required due to a change in the conditions of the environment. Vermiform appendix which is now vestigial in man due to the removal process of the unwanted by the magnetic field action is an example.
The Advancement
The process of advancement begins when the protozoans, the most basic units with characteristics of life i.e. intake of material as food for producing energy within, possessing mobility and propagation, pass down a little more complex electrical message to the generation that follows.As the electric field is modulated with more information at every generation down the line, the resulting magnetic field, strives to effect changes in the physical structure of the creature to suit which results in a more advanced creature to the previous generation making the electrical message too little more complex.
The advancement registered in the electric field in terms of the message modulated into it and transmitted down the line may not immediately be visible in the form of a corresponding physical change in immediately the next generation. The change may appear several generations hence with the intensification of the message and when an advancement in the physical structure is the inevitable solution i.e. fixing the problem by the magnetic field.
Protozoans that form in locations far apart, which may be alike at the beginning, will develop into different creatures due to variations of the influence from the environment.At a more advanced stage of the life system, with the aid of the magnetic field, an information processor and a message storage system develops.
The system thereafter acquires the ability to store electrical information by way of electrical charges in physical locations, as in a computer system, process and react to the environmental changes of light, heat, infra-red radiations, sound, tastes, smells, touch and many other forms of energy signals in the environment. The ‘organs of sense’ i.e. the devices to intake information from the environment develop simultaneously due to the magnetic field action. Read about eyespots on planariansAs the system of ‘life’ develops in this way, as a result of the advancement of the electric and magnetic fields of the developing ‘life systems’, its environment will in turn be influenced by the demands of ‘life’ to change too.
This occurs due to the ‘life system’ information being transferred on to the external magnetic field, which effects the corresponding changes in the environment such as developing new material as food or increase the present supply for example.
The environment will transform gradually to cater to its newly developed needs of the ‘life system’ feeding the propagation and existence of ‘life’, and as always the case with nature, maintaining the equilibrium. Having established equilibrium one system will exert demands on the other for its continuity and vice versa.
Should an imbalance occur due to an adverse effect on the life systems by the environment, as in the case of some of the lives being destroyed, for example by flood, and the environmental condition reoccurs regularly then this condition registers in the information storage system. The information registered burdens the magnetic field of the life system with the task of finding a solution to loss of ‘lives’.
The magnetic field establishes the balance by developing a method to propagating millions of ‘life units’ so that they will spread far and wide so that in case of a hazard, ‘life’ that remains in unaffected areas will continue to propagate. The magnetic field will develop other methods of protection of life as the life system advances in complexity.
Features
When floods strike: How nations keep food on the table
Insights from global adaptation strategies
Sri Lanka has been heavily affected by floods, and extreme flooding is rapidly becoming one of the most disruptive climate hazards worldwide. The consequences extend far beyond damaged infrastructure and displaced communities. The food systems and supply networks are among the hardest hit. Floods disrupt food systems through multiple pathways. Croplands are submerged, livestock are lost, and soils become degraded due to erosion or sediment deposition. Infrastructural facilities like roads, bridges, retail shops, storage warehouses, and sales centres are damaged or rendered inaccessible. Without functioning food supply networks, even unaffected food-producing regions struggle to continue daily lives in such disasters. Poor households, particularly those dependent on farming or informal rural economies, face sharp food price increases and income loss, increasing vulnerability and food insecurity.
Many countries now recognie that traditional emergency responses alone are no longer enough. Instead, they are adopting a combination of short-term stabilisation measures and long-term strategies to strengthen food supply chains against recurrent floods. The most common immediate response is the provision of emergency food and cash assistance. Governments, the World Food Programme, and other humanitarian organisations often deliver food, ready-to-eat rations, livestock feed, and livelihood support to affected communities.
Alongside these immediate measures, some nations are implementing long-term strategic actions. These include technology- and data-driven approaches to improve flood preparedness. Early warning systems, using satellite data, hydrological models, and advanced weather forecasting, allow farmers and supply chain operators to prepare for potential disruptions. Digital platforms provide market intelligence, logistics updates, and risk notifications to producers, wholesalers, and transporters. This article highlights examples of such strategies from countries that experience frequent flooding.
China: Grain Reserves and Strategic Preparedness
China maintains a large strategic grain reserve system for rice, wheat, and maize; managed by NFSRA-National Food and Strategic Reserves Administration and Sinograin (China Grain Reserves Corporation (Sinograin Group), funded by the Chinese government, that underpins national food security and enables macro-control of markets during supply shocks. Moreover, improvements in supply chain digitization and hydrological monitoring, the country has strengthened its ability to maintain stable food availability during extreme weather events.
Bangladesh: Turning Vulnerability into Resilience
In recent years, Bangladesh has stood out as one of the world’s most flood-exposed countries, yet it has successfully turned vulnerability into adaptive resilience. Floating agriculture, flood-tolerant rice varieties, and community-run grain reserves now help stabilise food supplies when farmland is submerged. Investments in early-warning systems and river-basin management have further reduced crop losses and protected rural livelihoods.
Netherlands, Japan: High-Tech Models of Flood Resilience
The Netherlands offers a highly technical model. After catastrophic flooding in 1953, the country completely redesigned its water governance approach. Farmland is protected behind sea barriers, rivers are carefully controlled, and land-use zoning is adaptive. Vertical farming and climate-controlled greenhouses ensure year-round food production, even during extreme events. Japan provides another example of diversified flood resilience. Following repeated typhoon-induced floods, the country shifted toward protected agriculture, insurance-backed farming, and automated logistics systems. Cold storage networks and digital supply tracking ensure that food continues to reach consumers, even when roads are cut off. While these strategies require significant capital and investment, their gradual implementation provides substantial long-term benefits.
Pakistan, Thailand, Indonesia, and Vietnam: Reform in Response to Recurrent Floods
In contrast, Pakistan and Thailand illustrate both the consequences of climate vulnerability and the benefits of proactive reform. The 2022 floods in Pakistan submerged about one-third of the country, destroying crops and disrupting trade networks. In response, the country has placed greater emphasis on climate-resilient farming, water governance reforms, and satellite-based crop monitoring. Pakistan as well as India is promoting crop diversification and adjusting planting schedules to help farmers avoid the peak monsoon flood periods.
Thailand has invested in flood zoning and improved farm infrastructure that keep markets supplied even during severe flooding. Meanwhile, Indonesia and Vietnam are actively advancing flood-adapted land-use planning and climate-resilient agriculture. For instance, In Vietnam’s Mekong Delta, pilot projects integrate flood-risk mapping, adaptive cropping strategies, and ecosystem-based approaches to reduce vulnerability in agricultural and distribution areas. In Indonesia, government-supported initiatives and regional projects are strengthening flood-risk-informed spatial planning, adaptive farming practices, and community-based water management to improve resilience in flood-prone regions. (See Figure 1)
The Global Lesson: Resilience Requires Early Investment
The global evidence is clear: countries that invest early in climate-adaptive agriculture and resilient logistics are better able to feed their populations, even during extreme floods. Building a resilient future depends not only on how we grow food but also on how we protect, store, and transport it. Strengthening infrastructure is therefore central to stabilising food supply chains while maintaining food quality, even during prolonged disruptions. Resilient storage systems, regional grain reserves, efficient cold chains, improved farming infrastructure, and digital supply mapping help reduce panic buying, food waste, and price shocks after floods, while ensuring that production capacity remains secure.
Persistent Challenges
However, despite these advances, many flood-exposed countries still face significant challenges. Resources are often insufficient to upgrade infrastructure or support vulnerable rural populations. Institutional coordination across the agriculture, disaster management, transport, and environmental sectors remains weak. Moreover, the frequency and scale of climate-driven floods are exceeding the design limits of older disaster-planning frameworks. As a result, the gap between exposure and resilience continues to widen. These challenges are highly relevant to Sri Lanka as well and require deliberate, gradual efforts to phase them out.
The Role of International Trade and global markets
When domestic production falls in such situations, international trade serves as an important buffer. When domestic production is temporarily reduced, imports and regional trade flows can help stabilise food availability. Such examples are available from other countries. For instance, In October 2024, floods in Bangladesh reportedly destroyed about 1.1 million tonnes of rice. In response, the government moved to import large volumes of rice and allowed accelerated or private-sector imports of rice to stabilize supply and curb food price inflation. This demonstrates how, when domestic production fails, international trade/livestock/food imports (from trade partners) acted as a crucial buffer to ensure availability of staple food for the population. However, this approach relies on well-functioning global markets, strong diplomatic relationships, and adequate foreign exchange, making it less reliable for economically fragile nations. For example, importing frozen vegetables to Sri Lanka from other countries can help address supply shortages, but considerations such as affordability, proper storage and selling mechanisms, cooking guidance, and nutritional benefits are essential, especially when these foods are not widely familiar to local populations.
Marketing and Distribution Strategies during Floods
Ensuring that food reaches consumers during floods requires innovative marketing and distribution strategies that address both supply- and demand-side challenges. Short-term interventions often include direct cash or food transfers, mobile markets, and temporary distribution centres in areas where conventional marketplaces become inaccessible. Price stabilisation measures, such as temporary caps or subsidies on staple foods, help prevent sharp inflation and protect vulnerable households. Awareness campaigns also play a role by educating consumers on safe storage, cooking methods, and the nutritional value of unfamiliar imported items, helping sustain effective demand.
Some countries have integrated technology to support these efforts; in this regard, adaptive supply chain strategies are increasingly used. Digital platforms provide farmers, wholesalers, and retailers with real-time market information, logistics updates, and flood-risk alerts, enabling them to reroute deliveries or adjust production schedules. Diversified delivery routes, using alternative roads, river transport, drones, or mobile cold-storage units, have proven essential for maintaining the flow of perishable goods such as vegetables, dairy, and frozen products. A notable example is Japan, where automated logistics systems and advanced cold-storage networks help keep supermarkets stocked even during severe typhoon-induced flooding.
The Importance of Research, Coordination, and Long-Term Commitment
Global experience also shows that research and development, strong institutional coordination, and sustained national commitment are fundamental pillars of flood-resilient food systems. Countries that have successfully reduced the impacts of recurrent floods consistently invest in agricultural innovation, cross-sector collaboration, and long-term planning.
Awareness Leads to Preparedness
As the summary, global evidence shows that countries that act early, plan strategically, and invest in resilience can protect both people and food systems. As Sri Lanka considers long-term strategies for food security under climate change, learning from flood-affected nations can help guide policy, planning, and public understanding. Awareness is the first step which preparedness must follow. These international experiences offer valuable lessons on how to protect food systems through proactive planning and integrated actions.
(Premaratne (BSc, MPhil, LLB) isSenior Lecturer in Agricultural Economics Department of Agricultural Systems, Faculty of Agriculture, Rajarata University. Views are personal.)
Key References·
Cabinet Secretariat, Government of Japan, 2021. Fundamental Plan for National Resilience – Food, Agriculture, Forestry and Fisheries / Logistics & Food Supply Chains. Tokyo: Cabinet Secretariat.
· Delta Programme Commissioner, 2022. Delta Programme 2023 (English – Print Version). The Hague: Netherlands Delta Programme.
· Hasanuddin University, 2025. ‘Sustainable resilience in flood-prone rice farming: adaptive strategies and risk-sharing around Tempe Lake, Indonesia’, Sustainability. Available at: https://www.mdpi.com/2071-1050/17/6/2456 [Accessed 3 December 2025].
· Mekong Urban Flood Resilience and Drainage Programme (TUEWAS), 2019–2021. Integrated urban flood and drainage planning for Mekong cities. TUEWAS / MRC initiative.
· Ministry of Agriculture and Rural Affairs, People’s Republic of China, 2025. ‘China’s summer grain procurement surpasses 50 mln tonnes’, English Ministry website, 4 July.
· National Food and Strategic Reserves Administration (China) 2024, ‘China purchases over 400 mln tonnes of grain in 2023’, GOV.cn, 9 January. Available at: https://english.www.gov.cn/archive/statistics/202401/09/content_WS659d1020c6d0868f4e8e2e46.html
· Pakistan: 2022 Floods Response Plan, 2022. United Nations / Government of Pakistan, UN Digital Library.
· Shigemitsu, M. & Gray, E., 2021. ‘Building the resilience of Japan’s agricultural sector to typhoons and heavy rain’, OECD Food, Agriculture and Fisheries Papers, No. 159. Paris: OECD Publishing.
· UNDP & GCF, 2023. Enhancing Climate Resilience in Thailand through Effective Water Management and Sustainable Agriculture (E WMSA): Project Factsheet. UNDP, Bangkok.
· United Nations Development Programme (UNDP), 2025. ‘Rice Bank revives hope in flood hit hill tracts, Bangladesh’, UNDP, 19 June.
· World Bank, 2022. ‘Bangladesh: World Bank supports food security and higher incomes of farmers vulnerable to climate change’, World Bank press release, 15 March.
Features
Can we forecast weather precisely?
Weather forecasts are useful. People attentively listen to them but complain that they go wrong or are not taken seriously. Forecasts today are more probabilistically reliable than decades ago. The advancement of atmospheric science, satellite imaging, radar maps and instantly updated databases has improved the art of predicting weather.
Yet can we predict weather patterns precisely? A branch of mathematics known as chaos theory says that weather can never be foretold with certainty.
The classical mechanics of Issac Newton governing the motion of all forms of matter, solid, liquid or gaseous, is a deterministic theory. If the initial conditions are known, the behaviour of the system at later instants of time can be precisely predicted. Based on this theory, occurrences of solar eclipses a century later have been predicted to an accuracy of minutes and seconds.
The thinking that the mechanical behaviour of systems in nature could always be accurately predicted based on their state at a previous instant of time was shaken by the work of the genius French Mathematician Henri Poincare (1864- 1902).
Eclipses are predicted with pinpoint accuracy based on analysis of a two-body system (Earth- Moon) governed by Newton’s laws. Poincare found that the equivalent problem of three astronomical bodies cannot be solved exactly – sometimes even the slightest variation of an initial condition yields a drastically different solution.
A profound conclusion was that the behaviour of physical systems governed by deterministic laws does not always allow practically meaningful predictions because even a minute unaccountable change of parameters leads to completely different results.
Until recent times, physicists overlooked Poincare’s work and continued to believe that the determinism of the laws of classical physics would allow them to analyse complex problems and derive future happenings, provided necessary computations are facilitated. When computers became available, the meteorologists conducted simulations aiming for accurate weather forecasting. The American mathematician Edward Lorenz, who turned into a reputed meteorologist, carried out such studies in the early 1960s, arrived at an unexpected result. His equations describing atmospheric dynamics demonstrated a strange behaviour. He found that even a minute change (even one part in a million) in initial parameters leads to a completely different weather pattern in the atmosphere. Lorenz announced his finding saying, A flap of a butterfly wing in one corner of the world could cause a cyclone in a far distant location weeks later! Lorenz’s work opened the way for the development branch of mathematics referred to as chaos theory – an expansion of the idea first disclosed by Henri Poincare.
We understand the dynamics of a cyclone as a giant whirlpool in the atmosphere, how it evolves and the conditions favourable for their origination. They are created as unpredictable thermodynamically favourable relaxation of instabilities in the atmosphere. The fundamental limitations dictated by chaos theory forbid accurate forecasting of the time and point of its appearance and the intensity. Once a cyclone forms, it can be tracked and the path of movement can be grossly ascertained by frequent observations. However, absolutely certain predictions are impossible.
A peculiarity of weather is that the chaotic nature of atmospheric dynamics does not permit ‘long – term’ forecasting with a high degree of certainty. The ‘long-term’ in this context, depending on situation, could be hours, days or weeks. Nonetheless, weather forecasts are invaluable for preparedness and avoiding unlikely, unfortunate events that might befall. A massive reaction to every unlikely event envisaged is also not warranted. Such an attitude leads to social chaos. The society far more complex than weather is heavily susceptible to chaotic phenomena.
by Prof. Kirthi Tennakone (ktenna@yahoo.co.uk)
Features
When the Waters Rise: Floods, Fear and the ancient survivors of Sri Lanka
The water came quietly at first, a steady rise along the riverbanks, familiar to communities who have lived beside Sri Lanka’s great waterways for generations. But within hours, these same rivers had swollen into raging, unpredictable forces. The Kelani Ganga overflowed. The Nilwala broke its margins. The Bentara, Kalu, and Mahaweli formed churning, chocolate-brown channels cutting through thousands of homes.
When the floods finally began to recede, villagers emerged to assess the damage, only to be confronted by another challenge: crocodiles. From Panadura’s back lanes to the suburbs of Colombo, and from the lagoons around Kalutara to the paddy fields of the dry zone, reports poured in of crocodiles resting on bunds, climbing over fences, or drifting silently into garden wells.
For many, these encounters were terrifying. But to Sri Lanka’s top herpetologists, the message was clear: this is what happens when climate extremes collide with shrinking habitats.
“Crocodiles are not invading us … we are invading floodplains”
Sri Lanka’s foremost crocodile expert, Dr. Anslem de Silva, Regional Chairman for South Asia and Iran of the IUCN/SSC Crocodile Specialist Group, has been studying crocodiles for over half a century. His warning is blunt.
“When rivers turn into violent torrents, crocodiles simply seek safety,” he says. “They avoid fast-moving water the same way humans do. During floods, they climb onto land or move into calm backwaters. People must understand this behaviour is natural, not aggressive.”
In the past week alone, Saltwater crocodiles have been sighted entering the Wellawatte Canal, drifting into the Panadura estuary, and appearing unexpectedly along Bolgoda Lake.
“Saltwater crocodiles often get washed out to sea during big floods,” Dr. de Silva explains. “Once the current weakens, they re-enter through the nearest lagoon or canal system. With rapid urbanisation along these waterways, these interactions are now far more visible.”
- An adult Salt Water Crocodile (Crocodylus porosus) (Photo -Madura de Silva)
- Adult Mugger (Crocodylus plaustris) Photo -Laxhman Nadaraja
- A Warning sign board
- A Mugger holding a a large Russell ’s viper (Photo- R. M. Gunasinghe)
- Anslem de Silva
- Suranjan Karunarathna
This clash between wildlife instinct and human expansion forms the backdrop of a crisis now unfolding across the island.
A conflict centuries old—now reshaped by climate change
Sri Lanka’s relationship with crocodiles is older than most of its kingdoms. The Cūḷavaṃsa describes armies halted by “flesh-eating crocodiles.” Ancient medical texts explain crocodile bite treatments. Fishermen and farmers around the Nilwala, Walawe, Maduganga, Batticaloa Lagoon, and Kalu Ganga have long accepted kimbula as part of their environment.
But the modern conflict has intensified dramatically.
A comprehensive countrywide survey by Dr. de Silva recorded 150 human–crocodile attacks, with 50 fatal, between 2008 and 2010. Over 52 percent occurred when people were bathing, and 83 percent of victims were men engaged in routine activities—washing, fishing, or walking along shallow margins.
Researchers consistently emphasise: most attacks happen not because crocodiles are unpredictable, but because humans underestimate them.
Yet this year’s flooding has magnified risks in new ways.
“Floods change everything” — Dr. Nimal D. Rathnayake
Herpetologist Dr. Nimal Rathnayake says the recent deluge cannot be understood in isolation.
“Floodwaters temporarily expand the crocodile’s world,” he says. “Areas people consider safe—paddy boundaries, footpaths, canal edges, abandoned land—suddenly become waterways.”
Once the water retreats, displaced crocodiles may end up in surprising places.
“We’ve documented crocodiles stranded in garden wells, drainage channels, unused culverts and even construction pits. These are not animals trying to attack. They are animals trying to survive.”
According to him, the real crisis is not the crocodile—it is the loss of wetlands, the destruction of natural river buffers, and the pollution of river systems.
“When you fill a marsh, block a canal, or replace vegetation with concrete, you force wildlife into narrower corridors. During floods, these become conflict hotspots.”
Past research by the Crocodile Specialist Group shows that more than 300 crocodiles have been killed in retaliation or for meat over the past decade. Such killings spike after major floods, when fear and misunderstanding are highest.
“Not monsters—ecosystem engineers” — Suranjan Karunaratne
On social media, flood-displaced crocodiles often go viral as “rogue beasts.” But conservationist Suranjan Karunaratne, also of the IUCN/SSC Crocodile Specialist Group, says such narratives are misleading.
“Crocodiles are apex predators shaped by millions of years of evolution,” he says. “They are shy, intelligent animals. The problem is predictable human behaviour.”
In countless attack investigations, Karunaratne and colleagues found a repeated pattern: the Three Sames—the same place, the same time, the same activity.
“People use the same bathing spot every single day. Crocodiles watch, learn, and plan. They hunt with extraordinary patience. When an attack occurs, it’s rarely random. It is the culmination of observation.”
He stresses that crocodiles are indispensable to healthy wetlands. They: control destructive catfish populations, recycle nutrients, clean carcasses and diseased fish, maintain biodiversity, create drought refuges through burrows used by amphibians and reptiles.
“Removing crocodiles destroys an entire chain of ecological services. They are not expendable.”
Karunaratne notes that after the civil conflict, Mugger populations in the north rebounded—proof that crocodiles recover when given space, solitude, and habitat.
Floods expose a neglected truth: CEEs save lives—if maintained In high-risk communities, Crocodile Exclusion Enclosures (CEEs) are often the only physical barrier between people and crocodiles. Built along riverbanks or tanks, these enclosures allow families to bathe, wash, and collect water safely.
Yet Dr. de Silva recounts a tragic incident along the Nilwala River where a girl was killed inside a poorly maintained enclosure. A rusted iron panel had created a hole just large enough for a crocodile to enter.
“CEEs are a life-saving intervention,” he says. “But they must be maintained. A neglected enclosure is worse than none at all.”
Despite their proven effectiveness, many CEEs remain abandoned, broken or unused.
Climate change is reshaping crocodile behaviour—and ours
Sri Lanka’s floods are no longer “cycles” as described in folklore. They are increasingly intense, unpredictable and climate-driven. The warming atmosphere delivers heavier rainfall in short bursts. Deforested hillsides and filled wetlands cannot absorb it.
Rivers swell rapidly and empty violently.
Crocodiles respond as they have always done: by moving to calmer water, by climbing onto land, by using drainage channels, by shifting between lagoons and canals, by following the shape of the water.
But human expansion has filled, blocked, or polluted these escape routes.
What once were crocodile flood refuges—marshes, mangroves, oxbow wetlands and abandoned river channels—are now housing schemes, fisheries, roads, and dumpsites.
Garbage, sand mining and invasive species worsen the crisis
The research contained in the uploaded reports paints a grim but accurate picture. Crocodiles are increasingly seen around garbage dumps, where invasive plants and waste accumulate. Polluted water attracts fish, which in turn draw crocodiles.
Excessive sand mining in river mouths and salinity intrusion expose crocodile nesting habitats. In some areas, agricultural chemicals contaminate wetlands beyond their natural capacity to recover.
In Borupana Ela, a short study found 29 Saltwater crocodiles killed in fishing gear within just 37 days.
Such numbers suggest a structural crisis—not a series of accidents.
Unplanned translocations: a dangerous human mistake
For years, local authorities attempted to reduce conflict by capturing crocodiles and releasing them elsewhere. Experts say this was misguided.
“Most Saltwater crocodiles have homing instincts,” explains Karunaratne. “Australian studies show many return to their original site—even if released dozens of kilometres away.”
Over the past decade, at least 26 Saltwater crocodiles have been released into inland freshwater bodies—home to the Mugger crocodile. This disrupts natural distribution, increases competition, and creates new conflict zones.
Living with crocodiles: a national strategy long overdue
All three experts—Dr. de Silva, Dr. Rathnayake and Karunaratne—agree that Sri Lanka urgently needs a coordinated, national-level mitigation plan.
* Protect natural buffers
Replant mangroves, restore riverine forests, enforce river margin laws.
* Maintain CEEs
They must be inspected, repaired and used regularly.
* Public education
Villagers should learn crocodile behaviour just as they learn about monsoons and tides.
* End harmful translocations
Let crocodiles remain in their natural ranges.
* Improve waste management
Dumps attract crocodiles and invasive species.
* Incentivise community monitoring
Trained local volunteers can track sightings and alert authorities early.
* Integrate crocodile safety into disaster management
Flood briefings should include alerts on reptile movement.
“The floods will come again. Our response must change.”
As the island cleans up and rebuilds, the deeper lesson lies beneath the brown floodwaters. Crocodiles are not new to Sri Lanka—but the conditions we are creating are.
Rivers once buffered by mangroves now rush through concrete channels. Tanks once supporting Mugger populations are choked with invasive plants. Wetlands once absorbing floodwaters are now levelled for construction.
Crocodiles move because the water moves. And the water moves differently today.
Dr. Rathnayake puts it simply:”We cannot treat every flooded crocodile as a threat to be eliminated. These animals are displaced, stressed, and trying to survive.”
Dr. de Silva adds:”Saving humans and saving crocodiles are not competing goals. Both depend on understanding behaviour—ours and theirs.”
And in a closing reflection, Suranjan Karunaratne says:”Crocodiles have survived 250 million years, outliving dinosaurs. Whether they survive the next 50 years in Sri Lanka depends entirely on us.”
For now, as the waters recede and the scars of the floods remain, Sri Lanka faces a choice: coexist with the ancient guardians of its waterways, or push them into extinction through fear, misunderstanding and neglect.
By Ifham Nizam
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