Showing posts with label பொது. Show all posts
Showing posts with label பொது. Show all posts

Wednesday, 26 August 2026

A Vision on Rails: Imagining India’s Northern Railway Gateway to Eurasia

A Vision on Rails: A Discussion for a Future in Which Gilgit-Baltistan Reverts to India

An Essay on Geography, Geopolitics, Connectivity and a Possible Eurasian Railway

By Dhinakar Rajaram

Introduction

I have approached this subject somewhat differently from a conventional blog article. The more I examined the geography, the engineering possibilities and the political assumptions involved, the more I felt that the subject was better suited to an extended discussion than to a neatly compartmentalised narrative. It is, at its heart, a question about what might become possible if circumstances were to change — and where such a possibility might lead.

It is, rather, a question to be discussed.

So I am putting the idea here as a long-form essay — not as a forecast, not as a government proposal, and certainly not as a claim that such a railway is presently under construction or even formally proposed.

It is a thought experiment.

The starting point was a recent Russian discussion about the desirability of developing railway access towards the Indian Ocean. That immediately set me thinking about a much larger geographical question.

If, at some point in the future, circumstances were to permit Gilgit-Baltistan to return to Indian administration, could that territory become part of a northern Eurasian railway corridor linking Central Asia and Russia with India's railway system?

That is the question I want to explore.

There is an important distinction to be made at the outset.

Russia has NOT announced a railway from Russia to India through Gilgit-Baltistan.

What has actually been discussed is considerably more modest and, at the same time, rather interesting. Russian Deputy Prime Minister Marat Khusnullin spoke about the strategic desirability of a railway connection towards the Indian Ocean, mentioning possible routes through Turkmenistan, Iran, Afghanistan and Pakistan, and indicating that routes providing access to India could also be considered.

Separately, Russia and Pakistan have been discussing a freight railway connection, including possible Moscow–Faisalabad and Moscow–Karachi services.

Those are real discussions.

The railway I am about to describe is mine.

It is an analytical construction — a possible line on a map which, under a radically different political landscape, might one day become worth examining seriously.

I should therefore make my position perfectly clear.

I hold the view, as does the Government of India, that the entire territory of the former princely State of Jammu and Kashmir is an integral part of India. Gilgit-Baltistan forms part of that larger territorial question and is presently administered by Pakistan.

The hypothetical railway discussed here therefore assumes a future in which the territory has returned to Indian administration.

Until such a circumstance arises, this remains precisely what I say it is:

A vision.
Not a project.
Not a prediction.

And certainly not a proposal for something that can be built tomorrow morning.

The Railway Begins with the Map

Whenever I look at a railway map, I am struck by how deceptive it can be.

A line appears so innocent. One draws it from one point to another and, at first glance, the problem seems solved. But a railway is not a pencil stroke.

It has to climb mountains, cross rivers, negotiate unstable geology, survive snow and landslides, pass through tunnels, cross bridges, maintain gradients, carry enormous loads and remain operational year after year.

In a difficult landscape, the map is merely the beginning of the argument. And the landscape between Central Asia and northern India is about as difficult as one could possibly choose.

Russia already possesses one of the world's great continental railway systems. Central Asia sits immediately to its south.

India possesses an enormous railway network which has been steadily pushing into the Himalayan region.

Between them lies a complicated belt of mountains, valleys, political boundaries and historically important corridors.

Now imagine, purely as a geographical exercise, a railway coming southwards from the Russian and Central Asian network, passing through Afghanistan, approaching the Wakhan region, entering Gilgit-Baltistan, continuing towards the Kashmir Valley and ultimately joining India's railway system.

On a map, it is a fascinating proposition.

On the ground, it would be an engineering monster.

And that distinction matters.

The Wakhan Question

The Wakhan Corridor is one of those geographical features which looks remarkably simple on a conventional map. It is a narrow eastern extension of Afghanistan, lying between Tajikistan to the north and the territories of the former princely State of Jammu and Kashmir to the south, with China at its eastern extremity.

The cartographic appearance can be rather beguiling.

One might be tempted to say:

"There is the corridor. Put the railway through it."

If only engineering were so obliging.

The Wakhan is a formidable environment. Altitude, severe winters, snow accumulation, sparse habitation, limited infrastructure, geological uncertainty and difficult access would make railway construction a first-rate undertaking.

A railway in such country would potentially require extensive tunnelling, substantial bridges, avalanche protection, landslide mitigation, drainage systems, snow-management arrangements, emergency access and year-round maintenance capability.

And there is another difficulty which is easily overlooked.

Construction is only half the battle.

Keeping such a railway operational for fifty or a hundred years is another matter altogether. A tunnel does not cease to exist when the ribbon is cut. A bridge does not maintain itself.

A mountain does not promise to remain still merely because engineers have passed their calculations.

The Wakhan therefore should not be regarded as an easy route.

At best, I would call it a geographical possibility requiring exhaustive geological, environmental, engineering, economic and security studies.

Geography can suggest a railway.

Only engineering can tell us whether the railway can actually exist.

Gilgit-Baltistan: From Barrier to Bridge

This is where the thought experiment becomes particularly interesting to me.

Gilgit-Baltistan occupies an extraordinary geographical position.

The Hindu Kush, Karakoram and western Himalaya converge around this larger region. It lies close to Afghanistan, China and the Kashmir Valley and has historically formed part of the great geographical interface between Central Asia and the Indian subcontinent.

Today, political boundaries divide these spaces.

But mountains do not recognise political boundaries.

Trade routes historically crossed them.

People crossed them.

Ideas crossed them.

Armies crossed them.

And, in the modern age, infrastructure can cross them too — provided politics permits it.

That last qualification is the important one.

If Gilgit-Baltistan were, in some future political settlement, under Indian administration, its geographical significance would change from the standpoint of transport planning.

It would no longer simply be a mountainous region lying at the edge of several political systems. It could potentially become a bridge between them.

That would be a profound change.

And I believe the political consequences would precede the economic consequences.

First politics.
Then infrastructure.
Then commerce.

Not the other way round.

India Is Not Starting from Zero

One of the things which makes this thought experiment particularly intriguing is that India has already constructed part of the southern framework.

The Udhampur–Srinagar–Baramulla Rail Link has brought railway connectivity into the Kashmir Valley, and the Chenab Rail Bridge stands as a remarkable demonstration of what modern Indian railway engineering can accomplish in extraordinarily difficult Himalayan terrain.

Therefore, when I look at Baramulla, I do not see merely a point on a map.

I see an existing railway system.

I see an operational terminus.

And that changes the nature of the question.

A hypothetical future railway from the north would not necessarily have to begin by creating an entirely new railway system across northern India.

Part of the southern network already exists.

There has also been continuing planning for further railway connectivity towards the north-western frontier, including the proposed Baramulla–Uri line.

I stress again that such present-day projects should not be confused with the hypothetical international railway I am discussing.

They are separate matters.

But they demonstrate something important: India has not abandoned the idea of extending modern transport infrastructure into difficult northern terrain.

And Then There Is Leh

Another piece of the larger geographical jigsaw is the proposed Bilaspur–Manali–Leh broad-gauge railway.

I do not suggest that this railway would somehow magically connect with a hypothetical Russia–Central Asia–Wakhan–Gilgit–Kashmir route.

That would be rather too convenient.

Its significance is different.

It represents another direction from which India is contemplating railway connectivity towards the high-altitude northern frontier.

If one day a genuinely extensive northern railway network were ever envisaged, having approaches from more than one direction could offer greater resilience than relying upon a single line.

But again, the Himalayan environment is not a railway engineer's picnic.

High altitude brings its own complications. Extreme cold affects machinery and personnel. Snow can close transport routes for prolonged periods. Steep gradients complicate traction.

Rockfalls and avalanches threaten infrastructure.

Seismic activity and unstable slopes require careful structural design.

In some areas, frozen ground and difficult geology present additional challenges.

A railway through such country would have to be designed around the mountain rather than pretending that the mountain is merely an inconvenience.

What Would Such a Railway Actually Be For?

This is where I think the discussion becomes more interesting than simply asking whether trains could physically travel along the route.

Suppose, for argument's sake, that the political circumstances were transformed.

Suppose the necessary agreements existed. Suppose the engineering problems had been solved.

What would the railway actually accomplish?

The first answer, in my view, would be freight.

Not tourists.
Not prestige.
Freight.

Containers carrying manufactured goods, machinery, minerals, agricultural produce, fertilisers and other valuable commodities could potentially move between Eurasian markets without relying entirely upon maritime routes.

For Russia, such a corridor could provide another southern outlet.

For the Central Asian republics, it could offer a more direct connection with the enormous Indian market.

For India, it could provide another continental connection into Eurasia.

For Afghanistan, assuming long-term political stability, it could transform the country's geographical position from a landlocked difficulty into a potential transit advantage.

And that is the point at which a railway becomes more than a railway.

It becomes a corridor.

A corridor creates terminals.

Terminals create warehouses.

Warehouses create logistics companies.

Logistics create employment.

Reliable freight movement encourages manufacturing and processing.

Roads follow railways.

Telecommunications follow commerce.

Financial services follow trade.

Before long, what began as a line of steel can become an economic geography of its own.

But There Is a Fly in the Ointment

There is, of course, one rather substantial fly in the ointment.

Politics.

A railway crossing several sovereign territories is only as dependable as the political relationships which keep those borders open.

The finest railway engineering in the world cannot alter that simple fact. One may electrify the line, install the most sophisticated signalling, drive tunnels through mountains, throw bridges across deep valleys and employ locomotives capable of hauling immense freight loads through difficult country.

Yet if a border is closed, the trains stop.

That is the hard-headed reality of international infrastructure.

A railway is made of steel, concrete, electricity and machinery. Diplomacy is made of agreements, confidence, reciprocity and patience.

One can measure a railway in kilometres.

One cannot measure political trust quite so conveniently.

And a continental corridor, above all, depends upon continuity. The infrastructure may be permanent, but the political arrangements which sustain it must endure alongside it.

That is why connectivity is ultimately about more than laying tracks.

A railway can be engineered.

What cannot be engineered is the political continuity upon which an international railway depends.

Tracks, tunnels, bridges, signalling and locomotives can all be designed, tested and maintained. But the agreements governing transit, customs, security and operations must endure for the railway to remain a functioning corridor.

That is the real test of a transcontinental railway.

The steel may last for generations.

The political arrangements must last with it.

Why Not Simply Use Ships?

A perfectly reasonable objection arises at this point.

Why go through all this trouble?

Ships can carry enormous quantities of cargo at extraordinarily low cost per tonne.

Maritime trade will remain the backbone of world commerce.

I am not suggesting otherwise.

The purpose of another railway would not be to replace shipping.

It would be to provide redundancy.

That is an important distinction.

Modern trade routes are vulnerable to chokepoints.

The Bosphorus connects the Black Sea with the Mediterranean.

The Strait of Hormuz is the principal maritime gateway between the Persian Gulf and the Gulf of Oman.

The Suez Canal connects the Mediterranean with the Red Sea.

And we have already seen how a single accident can have consequences far beyond the immediate geographical location of the incident.

When the Suez Canal was blocked in 2021, global shipping schedules, freight rates and supply chains were affected.

The lesson is not that ships are unreliable.

The lesson is that concentrated dependence creates vulnerability.

A continental railway cannot carry the volume of a major ocean-going container fleet.

Nor should it attempt to.

It can, however, provide another artery.

And redundancy is not necessarily waste.

In strategic planning, redundancy is insurance.

One hopes never to need it.

But when the day comes that the principal route is unavailable, the alternative suddenly looks like money very well spent.

The Geopolitical Reality

The route I am imagining begins with a simple premise: Gilgit-Baltistan has returned to Indian administration.

From there, the railway would follow the Himalayan–Karakoram passage towards the Wakhan Corridor, with India developing the line through its own territory and working with Afghanistan and Tajikistan for the sections passing through their sovereign territories.

The objective would not be to construct an isolated railway into the mountains.

It would be to reach the existing railway system of Tajikistan and, through it, gain access to the wider Central Asian network.

That immediately brings up a question which is rather less romantic than geopolitics, but every bit as important:

What happens when the rails do not match?

India's railway system is based principally on the 1,676 mm broad gauge. Tajikistan, following the former Soviet railway standard, uses the 1,520 mm gauge.

Consequently, the Indian railway could not simply run straight through onto the existing Tajik network without some form of gauge transition.

But this is an engineering problem, not a geographical dead end.

A break of gauge could permit the transfer of passengers and freight between the two systems. Depending upon traffic volumes, costs and future technical developments, other possibilities could include gauge-changing systems or dual-gauge arrangements.

It is, in fact, a useful reminder that the grandest railway visions eventually come down to very ordinary questions.

How wide are the rails?

How much weight can the track carry?

What locomotive can haul the train?

Where does the freight change trains?

Where are the customs facilities?

Where are the maintenance depots?

These details may lack the glamour of drawing a continental corridor across a map, but they are precisely what turns a geographical idea into a functioning railway.

And once the line reached Tajikistan, the character of the undertaking would change.

India would no longer be building merely towards a frontier.

It would be reaching an existing railway system.

From Tajikistan, the route could connect into the broader Central Asian network and, beyond it, towards Russia and the wider Eurasian railway system.

That is the part of the proposition which interests me most.

The value of the railway would not lie simply in connecting one Indian terminus with another distant terminus.

Its value would lie in opening access to a network.

India would acquire another continental route towards Central Asia.

Central Asian markets would gain a potential land connection with India.

Afghanistan would occupy the position of a transit bridge between two great geographical regions.

Tajikistan would become an important interface between the new southern railway and the existing Central Asian system.

And Russia, farther along that network, would no longer be merely a distant northern power on the map. Its railway system would become part of the same continuous chain of connectivity.

The route would therefore have several distinct stages, each with its own character.

India would provide the railway connection through the Himalayan–Karakoram passage of Gilgit-Baltistan.

Afghanistan would provide the Wakhan passage towards Central Asia.

Tajikistan would provide the connection with the existing Central Asian railway network.

Beyond that point, the railway would enter a system which already extends across a substantial part of the Eurasian landmass.

That, to me, is where the thought experiment becomes considerably more than a railway proposal.

It becomes a question of continental connectivity.

The mountains would remain formidable.

The distances would remain considerable.

The gauge difference would have to be resolved.

The construction costs would be enormous.

But none of these questions changes the fundamental geographical proposition.

The purpose of the line would be to take India's railway system from being a predominantly southern Eurasian network and give it another physical door into the continental railway systems of Central Asia.

And that is a rather different proposition from merely extending a railway into the Himalaya.

A railway which ends at a frontier is a terminus.

A railway which meets another railway is a connection.

But a railway which opens access to an existing continental network becomes something more.

It becomes a gateway.

The Economic Corridor Would Matter More Than the Rails

Once the railway exists, the real story would begin.

A railway is only the spine of a transport system. Around that spine would come freight terminals, warehouses, customs facilities, roads, communications, maintenance yards and the countless ordinary services required to keep goods and people moving.

But I would not expect every village along the route suddenly to become a boom town. That is not how infrastructure works.

What a railway can do is make economic activity possible where it was previously difficult or prohibitively expensive.

A suitably located town could become a freight-handling centre. Another might develop around maintenance or logistics. Agricultural producers could gain access to distant markets. Tourism could become more practical. Industries requiring reliable transport might find reasons to establish themselves closer to the corridor.

The railway, in other words, would be an enabler rather than a magician.

Whether the opportunity translated into genuine prosperity would depend upon what governments, businesses and communities subsequently made of it.

And that distinction matters.

The railway would provide the possibility of connectivity.

It would not provide prosperity automatically.

The Mountain Is Not Empty

There is another point which deserves rather more than a passing mention.

A line drawn across a map can make a mountain region look empty.

It is not.

People live in these valleys. Communities have their own histories, livelihoods and patterns of movement. Watercourses, grazing grounds, forests, wildlife and glacial systems are not minor considerations to be dealt with after the engineers have finished drawing their alignment.

Any railway through the Karakoram, Hindu Kush and western Himalaya would therefore have to be designed around the landscape rather than simply driven through it.

That would mean proper geological investigation, seismic engineering, avalanche protection, watershed management, environmental safeguards and disaster preparedness.

It would also mean listening to the people who actually live there.

I would regard that not as an impediment to development, but as part of development itself.

A railway intended to open a region to the outside world should not leave the people of that region paying the price for the privilege.

The Awkward Question of Cost

And then comes the question which eventually confronts every railway dream:

Who pays for it, and does the traffic justify it?

I would not pretend to know the answer.

Until detailed surveys establish the length of the route, the tunnels required, the bridges, gradients, geology, construction conditions and maintenance requirements, any precise figure would be little more than educated guesswork.

The same applies to revenue.

A railway through some of the most difficult terrain in Asia would have to compete with established maritime routes and other continental corridors. Freight would have to be sufficient to justify the capital expenditure and the continuing cost of maintaining the line.

That is why I would not judge the proposal by the railway alone.

The proper economic question would be whether the corridor as a whole could justify the investment.

If the answer were yes, the railway would become the physical backbone of a much larger enterprise.

If the answer were no, no amount of enthusiasm for the map would alter the arithmetic.

There is an old saying that you cannot make a silk purse out of a sow's ear.

Neither can one make a viable railway out of wishful thinking.

What Would Make It Worth Building?

For me, the strongest case would therefore not be passenger traffic.

It would be the creation of an additional continental freight route.

Its value would lie in giving India another physical connection towards Central Asia, while giving the countries along the route access to another major market.

That value would be difficult to express in a single railway balance sheet.

It would have to be considered in terms of trade, logistics, regional development and the resilience of India's wider transport network.

And there is an important distinction here.

I am not suggesting that such a railway should be built instead of India's maritime trade.

That would be putting the cart before the horse.

The sea will remain the principal highway of international commerce for the foreseeable future.

The point would be to have another road when circumstances make the principal road inconvenient, vulnerable or unavailable.

Redundancy may look expensive when everything is running smoothly.

But when the day comes that the principal route is unavailable, the alternative suddenly looks like money very well spent.

A Door Into Eurasia

This is ultimately where my thought experiment leads.

The railway would begin in India.

It would pass through the Himalayan–Karakoram passage of Gilgit-Baltistan.

It would continue through the Wakhan Corridor in cooperation with Afghanistan.

It would reach Tajikistan and connect with the existing Central Asian railway system.

From there, the tracks would lead into a network extending across the continental interior.

At that point, it would no longer be particularly useful to describe the project simply as an Indian railway.

It would be an Indian contribution to a Eurasian railway network.

That distinction is important.

A railway does not derive its greatest value merely from the distance it covers.

It derives value from where it can take you.

A connection to another railway creates destinations far beyond the end of the original line.

And a connection into an established continental network can turn what appears to be a remote branch into a strategic gateway.

That, to me, is the real attraction of the idea.

Not the novelty of running a train through spectacular mountains.

Not the romance of drawing a line from India to Russia.

But the possibility of giving India another physical route into the Eurasian heartland.

A Vision, Certainly — But Not Mere Fantasy

I have no intention of dressing this up as an imminent project.

It is not one.

There is no approved alignment of the kind I have described, no construction schedule and no financing arrangement.

I began with a real Russian discussion about alternative routes towards the Indian Ocean and then allowed myself to ask a much larger question:

What might become possible if the political geography of this part of Asia were one day fundamentally altered?

That is the boundary of my argument.

Beyond it lies speculation.

But speculation is not necessarily the same thing as fantasy.

A serious thought experiment should ask what would follow if its initial assumptions came to pass.

In this case, the assumptions are straightforward.

A changed political settlement.

Indian administration restored over Gilgit-Baltistan.

Cooperation with Afghanistan and Tajikistan for the portions crossing their sovereign territories.

A technically workable connection with the Tajik railway system.

And sufficient traffic and strategic value to justify the enormous investment.

If those conditions could somehow exist together, then the railway would no longer be an absurdity on a map.

It would become a question for engineers, economists and governments to examine.

Whether they would ultimately recommend building it would be another matter.

And That Is Where I Shall Leave the Train

I began this discussion with a railway.

But I find that the railway itself is not really the heart of the matter.

The deeper question is what happens when geography, engineering and political circumstance finally stop pulling in different directions.

The mountains are already there.

The passes are already there.

The valleys are already there.

The railway network of India is already there.

The Central Asian railway system is already there.

What does not presently exist is the political and physical connection between them.

Perhaps it never will.

Perhaps another route will prove better.

Perhaps the economics will never add up.

Perhaps the mountains will prove too demanding.

But if circumstances were ever to change, the question would be worth asking seriously.

Because a railway does something rather remarkable.

It takes geography that exists only as a possibility and gives it a physical direction.

It turns a frontier into a route.

It turns a route into a corridor.

And, if that corridor reaches another railway system, it can turn a national railway into part of a continental network.

That is the idea which stayed with me.

Not a prediction.

Not a government proposal.

Not a railway timetable.

Just a question about what might become possible when history, geography and engineering happen to meet at the same station.

A Vision on Rails.

About the Author

I am Dhinakar Rajaram, an Indian writer with a longstanding interest in astronomy, science, history, geography, technology and the manner in which physical realities influence human civilisation.

My interest in this subject comes particularly from the meeting point of geography and engineering. A line on a map may look deceptively simple, yet a railway must negotiate mountains, rivers, geology, gradients, tunnels, bridges, climate, security and economics.

In a region such as the Himalaya, Hindu Kush and Karakoram, I find that the map is only the beginning of the argument.

I have approached this essay in the same spirit in which I approach my other writings: separating established fact from interpretation, and interpretation from speculation.

The railway described here belongs firmly to the last of these categories.

A Note on the Nature of This Essay

This essay deliberately distinguishes between contemporary developments and a hypothetical future scenario.

The Russian discussions concerning alternative railway access towards the Indian Ocean are real. The hypothetical railway through the Wakhan Corridor, Gilgit-Baltistan and the Kashmir Valley is my own analytical construction.

I am not presenting it as an announced international project, an approved alignment or a prediction of future government policy.

Its purpose is to examine what might become geographically, technically and economically conceivable under a fundamentally different political settlement.

Hashtags

#Geopolitics #India #Russia #GilgitBaltistan #Kashmir #CentralAsia #WakhanCorridor #Railways #Eurasia #IndianOcean #Connectivity #StrategicInfrastructure #Geography #InternationalRelations #DhinakarRajaram

Monday, 24 August 2026

Gold from Lead: What CERN Actually Made — and What It Did Not

Gold from Lead: What CERN Actually Made — and What It Did Not

Gold from Lead: What CERN Actually Made — and What It Did Not

By Dhinakar Rajaram

Reading time: Approximately 15 minutes

Translation: This article may be read using the translation facility available on the blog. Machine-translated versions may contain inaccuracies in terminology, particularly in scientific vocabulary.

Foreword

Few words possess the power to excite the human imagination quite like gold. For thousands of years, the metal has represented wealth, rarity, permanence and beauty. It has also occupied a remarkable place in the history of human attempts to understand and transform matter.

It was therefore hardly surprising that the announcement that the ALICE experiment at CERN had detected the transmutation of lead into gold attracted considerable attention. Some reports presented the story in language that seemed to suggest that CERN had achieved the ancient alchemist's dream: take an ordinary metal, put it into an extraordinarily expensive machine and obtain gold.

The scientific reality is both less commercially spectacular and considerably more interesting.

CERN did not manufacture gold bars, flakes or even a microscopic piece of usable gold. The ALICE experiment observed a nuclear transmutation in which lead nuclei, under extreme conditions at the Large Hadron Collider, lost three protons and became gold nuclei. The resulting gold nuclei existed only for a tiny fraction of a second before striking components of the accelerator and fragmenting.

The experiment nevertheless represents a genuine and remarkable achievement in nuclear physics.

It also provides an excellent opportunity to examine several ideas that are frequently mixed together in public discussion: alchemy, chemistry, nuclear physics, natural materials, laboratory-grown materials, scientific evidence and the difference between what something is and where it came from.

This essay therefore asks a simple question:

When the headline says that science has made gold, what has science actually done?

Article 51A(h) — Scientific Temper

The Constitution of India places upon citizens the fundamental duty to develop “the scientific temper, humanism and the spirit of inquiry and reform” under Article 51A(h).

This essay is written in that spirit.

Respect for a cultural tradition, a religious belief or a piece of folklore does not require that its scientific claims be accepted without evidence. Equally, questioning a claim scientifically need not amount to disrespecting the people or traditions associated with it.

Science asks a different question:

What is the evidence?

An extraordinary claim requires extraordinary evidence. A statement does not become scientifically established merely because it is ancient, popular, repeatedly narrated or attributed to an authority. Scientific claims must withstand observation, measurement, experiment, reproducibility and scrutiny.

About the Author

I am Dhinakar Rajaram, a Chennai-based writer with a longstanding interest in science, astronomy, technology, music and the many ways in which the natural world reveals itself to an enquiring mind.

My interest in astronomy has led me to observe the night sky as an amateur astronomer, while my long association with technology and communications has kept me curious about the science underlying everyday phenomena. I am also a licensed amateur radio operator, with the call sign VU3DIR.

Through my writing, I try to examine subjects that often appear simple on the surface but conceal interesting scientific principles underneath. My approach is to explain the science in clear language without sacrificing accuracy, and to distinguish established evidence from assumption, speculation and popular misconception.

This essay on CERN, gold, alchemy and laboratory-grown diamonds follows that same approach. The subject interested me because a sensational headline appeared to turn a sophisticated nuclear-physics experiment into a modern version of the alchemist's dream. I wanted to look beyond the headline and examine what actually happened.

I respect the traditions, beliefs and folklore through which people have sought to understand the world. At the same time, I believe that a science blog has a responsibility to maintain a clear boundary between belief and evidence, tradition and experiment, possibility and demonstrated fact.

For me, the most rewarding part of science is not merely finding an answer, but asking the right question and following the evidence wherever it leads.

Preface — From Alchemy to Nuclear Physics

Long before modern chemistry and nuclear physics existed, human beings wondered whether one substance could be transformed into another.

The dream of turning a common metal into gold became one of the great themes of alchemical traditions in different parts of the world. Indian traditions associated with rasaśāstra and related disciplines contain extensive historical literature concerning metals, minerals, mercury and processes claimed to transform or purify substances. Other alchemical traditions developed in China, the Islamic world and Europe.

Such traditions are part of the history of human thought and deserve to be studied in their historical context.

But history and science operate by different rules.

A traditional account is evidence that a belief existed. It is not, by itself, evidence that the claimed physical process actually works.

That distinction becomes particularly important when a modern scientific experiment is described in language that resembles an ancient legend.

CERN did not discover an alchemical recipe.

It demonstrated a phenomenon predicted by nuclear physics.

And therein lies the real story.

1. The Headline That Awakened the Alchemist

The phrase “CERN made gold” is technically derived from a real scientific result, but it is capable of creating a thoroughly misleading mental picture.

A reader may imagine lead entering the Large Hadron Collider and gold emerging from the other end.

That did not happen.

There was no vat of molten lead.

There was no gold bar at the end of the experiment.

There was no collection of precious metal.

There was no secret chemical formula.

There was no modern philosopher's stone.

What occurred was a nuclear process involving individual atomic nuclei.

CERN's ALICE collaboration reported in 2025 that near-miss encounters between high-energy lead nuclei at the Large Hadron Collider could produce intense electromagnetic fields capable of knocking three protons out of a lead nucleus. Since lead has 82 protons and gold has 79, removing three protons changes the identity of the nucleus from lead to gold.

This is not metaphor.

It is genuine elemental transmutation.

But it is also not the sort of gold that an alchemist, jeweller or bullion dealer could use.

2. What Makes Gold Gold?

The key to understanding the entire story lies in one number:

79.

Gold has atomic number 79.

That means that every neutral atom of gold possesses a nucleus containing 79 protons.

Lead has atomic number 82.

Thus, in the simplest description:

Lead: 82 protons

Gold: 79 protons

The difference is not merely a difference in colour, density or appearance. It is a difference in the nucleus itself.

Chemical reactions normally involve electrons and the ways in which atoms bond with one another. They can change molecules, compounds and chemical states, but they do not ordinarily alter the number of protons in an atomic nucleus.

Changing the number of protons changes the element.

That is why converting lead into gold is not a chemical trick.

It is nuclear transmutation.

3. What CERN Actually Did

The Large Hadron Collider accelerates particles to enormous energies. In the ALICE experiment, lead nuclei can be brought into extremely close encounters.

The nuclei need not collide head-on.

During a near-miss encounter, the extraordinarily strong electromagnetic field surrounding a lead nucleus can produce interactions capable of ejecting three protons from another lead nucleus.

The original lead nucleus therefore undergoes a change in nuclear composition.

With three protons removed:

82 − 3 = 79

The resulting nucleus is a nucleus of gold.

The process is an elegant demonstration of one of the fundamental facts of nuclear science:

An element is defined by the number of protons in its nucleus.

CERN reported that during LHC Run 2, from 2015 to 2018, approximately 86 billion gold nuclei were produced across the relevant lead-beam interactions. In mass, that amounted to approximately 29 picograms, or 2.9 × 10−11 grams.

That is an astonishingly small quantity.

More importantly, the gold did not accumulate as a usable substance. The energetic gold nuclei travelled through the accelerator and struck the beam pipe or collimators downstream, where they fragmented into other particles.

The gold therefore existed only fleetingly.

The irony is delightful.

The alchemists wanted riches.

Nuclear physics produced evidence.

4. Twenty-Nine Picograms — Gold That Cannot Become Jewellery

Numbers can sometimes conceal more than they reveal.

“Gold was produced” sounds impressive.

“Twenty-nine picograms were produced during Run 2” tells a very different story.

A picogram is one trillionth of a gram.

The reported 29-picogram quantity is therefore:

0.000000000029 grams.

Even that figure should not be interpreted as a quantity of gold that could have been collected.

The gold nuclei were extraordinarily energetic and survived only for a tiny fraction of a second before interacting with accelerator components and fragmenting.

Thus the CERN experiment did not create a microscopic piece of gold that could be placed beneath a microscope and admired.

There was no gold particle waiting to be picked up.

There was a nuclear event.

That distinction is crucial.

5. Was the LHC a Five-Billion-Dollar Gold-Making Machine?

Another popular interpretation deserves correction.

The Large Hadron Collider has indeed been an enormously expensive scientific undertaking, and figures of several billion dollars are often associated with its construction and infrastructure.

But describing it as a five-billion-dollar machine built to make gold is misleading.

The LHC was built as a facility for fundamental particle physics. Its scientific purposes include investigating the fundamental constituents of matter, the behaviour of matter at extreme energies and conditions relevant to the early Universe, and phenomena such as the Higgs boson and quark–gluon plasma.

Gold production was not its purpose.

The lead-to-gold transmutation observed by ALICE is a consequence of nuclear interactions occurring within a facility designed for entirely different scientific objectives.

A scientific facility should therefore not be assigned the cost of a particular incidental phenomenon simply because that phenomenon makes a striking headline.

The cost belongs to the scientific infrastructure.

The gold was a fleeting consequence of the physics.

6. Does This Prove That the Alchemists Were Right?

No.

It proves something more precise — and scientifically much more interesting.

The ancient alchemical objective was broadly the transformation of one substance into another, including the aspiration to obtain gold from less valuable materials. The methods proposed historically were generally rooted in the scientific understanding available at the time, including chemical processes, metallurgy, symbolism and elaborate theories concerning the purification and transformation of matter.

Modern nuclear transmutation works because the atomic nucleus can be changed.

The distinction is fundamental.

A chemical reaction rearranges electrons and chemical bonds.

A nuclear reaction changes the nucleus.

No herb, juice, secret mixture or ordinary chemical reagent can cause lead to become gold merely by rearranging its electrons.

To change lead into gold, the nuclear composition must change.

Thus, when a modern experiment produces gold from lead, it does not vindicate the alchemical recipe.

It demonstrates that nature permits elemental transmutation under nuclear conditions.

The ancient question had a modern answer, but not the ancient mechanism.

7. Extraordinary Claims Require Extraordinary Evidence

This is where scientific temper becomes indispensable.

Suppose somebody claims that a particular herb, plant extract, powder, liquid or secret combination of chemicals can convert lead into gold.

That is an extraordinary claim.

The appropriate scientific response is neither ridicule nor credulity.

It is:

Show the evidence.

The claim would require controlled experiments, precise identification of the starting materials, accurate measurement of the products, appropriate controls, repeatability, independent verification and a physically plausible mechanism.

If genuine gold were produced, modern analytical techniques would have no difficulty establishing its elemental identity. Its elemental composition, isotopic characteristics and other measurable properties could be examined.

A claim does not become scientific because it is old.

It becomes scientific when it survives testing.

That is one of the great strengths of science: the authority of a claim ultimately rests not upon who said it, but upon whether nature repeatedly behaves as predicted.

8. Chemistry Cannot Turn Lead into Gold

This distinction is worth stating plainly because much confusion arises from treating chemistry and nuclear physics as though they were interchangeable.

Lead is element 82.

Gold is element 79.

Ordinary chemical reactions do not change those atomic numbers.

Heating lead, dissolving it, mixing it with another chemical, filtering it, distilling it or combining it with plant extracts cannot ordinarily remove three protons from its nucleus.

Chemical energy is associated principally with electrons and chemical bonds.

Nuclear energy involves the atomic nucleus and is enormously greater in scale.

The difference is not a matter of finding the correct secret ingredient.

It is a difference in the level of nature at which the transformation occurs.

The philosopher's stone of chemistry does not exist.

The nuclear transmutation of elements does.

9. Natural Gold and Artificially Produced Gold

Here we arrive at an important distinction.

Suppose, purely hypothetically, that scientists eventually develop an economical method for producing stable, usable quantities of gold through nuclear transmutation.

Would that gold be fake?

No.

If the resulting atoms possess the defining nuclear characteristics of gold, they are gold.

Nature does not recognise a certificate of origin.

An atom does not carry a label saying “mined in South Africa” or “produced in a laboratory”.

Gold is gold because of its atomic identity.

Therefore, calling laboratory-produced gold “fake gold” would be scientifically incorrect.

But that does not mean that natural gold and laboratory-produced gold would necessarily have the same provenance, rarity, history or economic significance.

Those are different questions.

This distinction is essential:

Chemical identity and origin are not the same thing.

10. Natural Diamond and Laboratory-Grown Diamond

The same distinction becomes particularly interesting when considering diamonds.

Natural diamonds formed deep within Earth under high pressures and temperatures, often over geological timescales. They were subsequently brought towards the surface through geological processes associated with volcanic activity.

Laboratory-grown diamonds are produced by human technology.

Two principal methods are used commercially:

HPHT — High Pressure, High Temperature

and

CVD — Chemical Vapour Deposition.

HPHT attempts to reproduce important conditions associated with diamond formation by using high pressure and high temperature.

CVD is fundamentally different. Carbon-containing gases are activated under controlled conditions, allowing carbon to deposit upon a diamond seed and grow into diamond.

Here science gives us an important correction to popular terminology.

A laboratory-grown diamond is not a diamond imitation.

It is not comparable to cubic zirconia or another diamond simulant.

It is genuine diamond.

The Gemological Institute of America states that laboratory-grown diamonds possess essentially the same chemical composition, crystal structure and physical properties as natural diamonds. They can nevertheless be distinguished by advanced gemological techniques because their growth histories leave characteristic signatures.

Thus:

Natural diamond — natural geological origin.

Laboratory-grown diamond — controlled technological origin.

Both — diamond.

11. If They Are Both Diamond, Why Does the Distinction Matter?

Because identity is not the only property humans value.

A natural diamond may contain evidence of an extraordinarily long geological history: inclusions, growth patterns, defects and chemical characteristics inherited from the environment in which it formed.

A laboratory-grown diamond has a different history.

Its growth may take weeks rather than geological ages.

The difference is therefore not necessarily one of “real” versus “fake”.

It is one of origin and provenance.

A collector may value an ancient object partly because of its history. A geological specimen may be scientifically interesting precisely because nature produced it. A manufactured object may possess equal or greater technological sophistication while having an entirely different story.

Science does not dictate what a person must value.

It tells us what the material actually is.

The marketplace, culture and individual preference determine what significance people attach to its origin.

12. Natural and Synthetic Are Not Always Opposites of Real and Fake

The word synthetic is often misunderstood.

In scientific terminology, synthetic can mean that something has been produced artificially rather than formed through the corresponding natural process.

It does not automatically mean counterfeit.

A laboratory-grown diamond is synthetic in origin but genuine as diamond.

A laboratory-produced gold atom, if stable and genuinely possessing the nuclear identity of gold, would likewise be genuine gold.

The scientifically useful distinction is therefore not:

natural = real

and

synthetic = fake.

It is:

natural = formed through natural processes

and

synthetic = produced through an artificial process.

Whether the two deserve the same price or cultural value is a separate question.

13. The Orange-Flavour Analogy — With a Scientific Qualification

There is an intuitive comparison with natural and synthetic flavourings.

A natural orange is the product of a living organism interacting with soil, water, sunlight, climate and biological processes. Its flavour is a complex sensory consequence of numerous compounds.

A synthetic orange flavouring may reproduce selected aspects of that sensory experience using compounds manufactured or isolated through controlled processes.

The flavouring is not the orange.

But this analogy must not be carried too far.

Gold and diamond are materials whose scientific identities can be defined much more precisely.

A laboratory-grown diamond really is diamond.

A laboratory-produced gold atom really would be gold.

Therefore, the more accurate lesson from the analogy is not that everything artificial is an imitation.

Reproducing a property does not necessarily reproduce the history or provenance of the original.

14. What Science Can Reproduce — and What It Cannot Reproduce

Human technology has become extraordinarily capable.

We can reproduce materials, structures, temperatures, pressures, crystals, biological molecules and many other phenomena once thought accessible only to nature.

But reproduction has different meanings.

We may reproduce the composition.

We may reproduce the structure.

We may reproduce the physical properties.

We may reproduce the appearance.

We may even reproduce a material with astonishing fidelity.

But we cannot retroactively reproduce the geological history of a natural diamond.

Nor can we make laboratory-produced gold possess the geological provenance of gold deposited naturally in Earth's crust.

The material and its history are separate facts.

This is not mysticism.

It is simply the distinction between what something is and how it came to be.

15. CERN's Gold Is More Interesting Than the Headline

The media-friendly version of the story is:

“CERN made gold.”

The scientifically meaningful version is:

“ALICE measured lead-to-gold nuclear transmutation produced by electromagnetic interactions during near-miss encounters of high-energy lead nuclei.”

The second sentence is considerably less suitable for a sensational headline.

It is also vastly more informative.

The experiment tells us something profound about matter.

Lead and gold are not permanently fixed categories imposed upon the Universe. Their identities arise from the structure of their atomic nuclei. Under sufficiently energetic nuclear conditions, one nucleus can be transformed into another.

That is not magic.

It is not alchemy.

It is nuclear physics.

And perhaps that is the real wonder.

16. The Difference Between an Extraordinary Claim and an Extraordinary Experiment

There is a temptation to say that CERN has finally demonstrated that the ancient dream was correct.

That is too broad.

The scientific statement is narrower:

A process exists by which lead nuclei can be transformed into gold nuclei.

That statement is supported by experimental evidence.

The statement:

“A secret herbal preparation can turn lead into gold.”

is an entirely different claim.

It requires entirely different evidence.

Science does not transfer credibility from one claim to another simply because the two happen to concern the same subject.

The fact that CERN has demonstrated nuclear transmutation does not make an untested alchemical recipe credible.

Indeed, it makes the distinction clearer.

We now understand why elemental transmutation is possible.

We also understand why ordinary chemistry cannot accomplish it.

17. What the Future May Hold

Could humanity one day manufacture gold in meaningful quantities?

In principle, nuclear physics permits elemental transmutation.

In practice, the economics are an entirely different matter.

A process may be physically possible and commercially absurd.

The CERN result illustrates this beautifully.

Producing fleeting gold nuclei at a particle accelerator is one thing.

Producing kilograms of stable gold economically is another matter altogether.

The energy requirements, reaction rates, accelerator infrastructure, target handling, nuclear products and overall cost would have to be considered.

The periodic table does not come with a promise that every possible transformation will be commercially sensible.

Science answers the question:

Can nature permit this process?

Engineering asks:

Can we control it?

Economics asks:

Is it worth doing?

Those are three different questions.

18. The Real Lesson

The CERN experiment should therefore not be reduced to a tale of modern alchemists finally discovering the philosopher's stone.

It is a story about the structure of matter.

It shows that an element's identity is rooted in its nucleus. Lead has 82 protons. Gold has 79. Under extreme nuclear conditions, a lead nucleus can lose three protons and become a gold nucleus.

The resulting quantity is fantastically small.

The gold is fleeting.

There is no practical route from the experiment to jewellery or bullion.

And the enormous cost of the Large Hadron Collider was not an expenditure incurred to manufacture gold.

The experiment nevertheless demonstrates something that medieval alchemists could only speculate about:

elements can indeed be transmuted.

But science arrived at that conclusion not through secret recipes, mystical substances or inherited claims.

It arrived through theory, experiment, measurement, detectors, mathematics and evidence.

That distinction is the heart of scientific temper.

Conclusion — Gold, Science and the Discipline of Evidence

Human beings have always asked extraordinary questions.

Can one substance become another?

Can the ordinary become precious?

Can matter be transformed?

Those questions belong to our intellectual history.

But answers belong to evidence.

CERN has demonstrated that lead nuclei can be transformed into gold nuclei. The achievement is real. The gold is real in the nuclear sense. But the popular image of CERN manufacturing useful quantities of gold is not.

Nor does the experiment prove that traditional alchemical recipes work.

Nor does it make laboratory-grown diamond an imitation of natural diamond.

Nor does science require us to pretend that natural and laboratory-produced materials have identical histories or identical market values.

The proper scientific distinctions are much more precise.

A natural diamond and a laboratory-grown diamond can both be genuine diamond while having different origins.

A naturally occurring gold atom and a laboratory-produced gold atom can both be genuine gold while having different histories.

And a nuclear physicist converting one element into another is not an alchemist merely because both are concerned with transmutation.

The difference is evidence.

Alchemy asked whether matter could be transformed.

Nuclear physics demonstrated how certain transformations actually occur.

That is not the triumph of myth over science.

It is the triumph of evidence over conjecture.

In science, an extraordinary claim does not become true because it is ancient, attractive, popular or repeated.

It becomes credible when nature itself provides the evidence.

Glossary

ALICE
A Large Ion Collider Experiment at CERN designed to study strongly interacting matter, including quark–gluon plasma.
Alchemy
A group of historical traditions concerned with the nature, transformation and purification of matter.
Atomic number
The number of protons in an atomic nucleus. It determines the identity of an element.
CERN
The European Organisation for Nuclear Research, an international centre for particle physics.
CVD
Chemical Vapour Deposition, a method used to grow laboratory-grown diamond from carbon-containing gases.
Element
A pure chemical substance defined by the number of protons in its nuclei.
HPHT
High Pressure, High Temperature, a method used to produce laboratory-grown diamonds under high-pressure and high-temperature conditions.
Isotope
A form of an element having the same number of protons but a different number of neutrons.
Lead (Pb)
A chemical element with atomic number 82.
Nuclear transmutation
The conversion of one chemical element into another through a change in the atomic nucleus.
Picogram
One trillionth of a gram.
Proton
A positively charged particle found in the nucleus of an atom. The number of protons determines the element.
Synthetic material
A material produced artificially rather than through the corresponding natural process. “Synthetic” does not automatically mean “fake”.
Gold (Au)
A chemical element with atomic number 79.

References & Further Reading

  1. CERN — ALICE detects the conversion of lead into gold at the LHC, 8 May 2025.
  2. ALICE Collaboration — Research concerning electromagnetic dissociation and the production of gold nuclei in lead–lead collisions at the Large Hadron Collider.
  3. International Union of Pure and Applied Chemistry (IUPAC) — Periodic Table of the Elements.
  4. Gemological Institute of America (GIA) — Research and educational material concerning natural and laboratory-grown diamonds, including HPHT and CVD growth.
  5. Gemological Institute of America (GIA) — Research concerning the differences between natural and laboratory-grown diamonds and the scientific methods used to distinguish them.

Hashtags

#Gold #CERN #ALICE #NuclearPhysics #NuclearTransmutation #Physics #Science #ScientificTemper #ScienceCommunication #Alchemy #LeadToGold #GoldScience #Diamonds #NaturalDiamond #LabGrownDiamond #HPHT #CVD #Chemistry #AtomicNumber #EvidenceBasedScience #DhinakarRajaram

Saturday, 24 January 2026

Kaapi and Mohanam — Two Dimensions of Emotion in Ilaiyaraaja’s Music

🎶 Kaapi and Mohanam — Two Dimensions of Emotion in Ilaiyaraaja’s Music 🎶


Prelude

Tamil cinema has long drawn from the Carnatic idiom, but none embraced and redefined it like Ilaiyaraaja — a composer who built bridges between folk soil and symphonic sky. Often hailed as the Music Messiah, Raaja internalised classical grammar and rendered it accessible without compromise. He turned ragas into emotional landscapes and made silence a structural element of sound.

To experience Raaja is to witness a form of emotional engineering — precision and feeling coexisting in seamless unity. Every song becomes architecture: melody as foundation, rhythm as geometry, and harmony as breath. In this essay we traverse two of his recurring ragas — Kaapi and Mohanam — mirrors of two moods, dusk and dawn.

To call him a Music Messiah is not a gesture of fan adoration — it is a recognition of what he has done for sound itself. Ilaiyaraaja did not merely compose songs; he liberated music from the narrow corridors of form and function. He gave melody a conscience, rhythm a pulse, and harmony a direction. In the landscape of South Indian cinema, he became both scientist and sage — the one who measured silence, moulded emotion, and made an entire generation rediscover listening as a sacred act. His music did not entertain alone — it awakened.


🎵 Kaapi — The Scent of Memory

🌺 Kanne Kalaimane — Moondram Pirai (1982)

Music: Ilaiyaraaja | Lyrics: Kannadasan | Singer: K. J. Yesudas | Rāgam: Kaapi

This song is Kaapi distilled to its emotional core. Ilaiyaraaja uses only three primary swaras, creating vast emotional resonance with minimalist phrasing. A delicate hint of Nātabhairavi shadows the melody, giving it earthy warmth. Kannadasan’s final lyrical offering becomes a farewell in sound — tender, resigned, timeless.

“Where words end, Kaapi begins — whispering of love, distance, and quiet grace.”

🎧 Yae Paadal Ondru (also known as Hey Paadal Ondru) — Priya (1978)

Music: Ilaiyaraaja | Lyrics: Kannadasan | Singers: K. J. Yesudas & S. Janaki | Rāgam: Kaapi

Trivia: First Stereo 8-Track recording in South Indian cinema.

If “Kanne Kalaimane” is introspection, “Yae Paadal Ondru” is luminous romance. The warmth of Yesudas and Janaki’s voices makes Kaapi glow with human tenderness. This was the first South Indian song recorded in stereo 8-track, signalling Raaja’s technical vision as much as his melodic mastery.


🪶 Sangathil Paadatha Kavithai — Auto Raja (1982)

Music: Ilaiyaraaja (single song) | Main Composer: Shankar–Ganesh | Rāgam: Kaapi

🪶 Sangathil Paadatha Kavithai — Auto Raja (1982)

Music: Ilaiyaraaja (single song) | Main Composer: Shankar–Ganesh | Rāgam: Kaapi

Officially scored by Shankar–Ganesh, this lone Ilaiyaraaja composition eclipsed the rest of the soundtrack. Built entirely on Kaapi using just three notes — no others were used — the song demonstrates Raaja’s extraordinary musical genius. The tune moves effortlessly between folk simplicity and classical gravity, yet its melodic economy creates immense emotional depth. Its success was so overwhelming that many believed he had scored the entire film. Few composers could make a single song define a film’s identity — Raaja did it effortlessly.


🌼 Mohanam — The Light Within

🌼 Naan Oru Ponnoviyam Kanden — Kannil Theriyum Kathaigal (1980)

Music: Ilaiyaraaja (single song) | Rāgam: Mohanam

In a soundtrack where each song had a different composer, this Mohanam stood out for its sheer serenity. The raga’s five-note purity reflects joy without ornament. Raaja paints with light — his orchestration airy, his melody crystalline.

Rāga structure: S R₂ G₃ P D₂ S :: S D₂ P G₃ R₂ S — the pentatonic signature of Mohanam, absent of Ma and Ni, giving it transparency and openness.


💞 Oru Kadhal Enbathu — Chinna Thambi Periya Thambi (1987)

Music: Ilaiyaraaja (single song) | Main Composer: Gangai Amaran | Rāgam: Mohanam

A sibling synergy — Gangai Amaran helmed the score, but Ilaiyaraaja’s single Mohanam track became a sensation. Bright and youthful, it radiates simplicity woven with orchestral shimmer. Even when contributing one song, Raaja stamped an unmistakable melodic identity.


🔥 Ninnukori Varnam — Agni Natchathiram (1988)

Music: Ilaiyaraaja | Singer: K. S. Chithra | Rāgam: Mohanam | Tālam: Ādi

A classical varnam reborn in symphonic fire. Ilaiyaraaja transforms Ninnukori — originally a pedagogic piece — into rhythmic theatre, blending electric bass, counter-melody, and harmonic layering. The Mohanam stays untouched in soul, yet its body is modern, cinematic, alive.


🎻 Ninnukori Varnam — Carnatic Original

Composer: Ramanathapuram Srinivasa Iyengar | Rāgam: Mohanam | Tālam: Ādi

Notable Renditions: Maharajapuram Santhanam, Jon B. Higgins (Bagavathar)

A pillar of Carnatic learning, this varnam is a study in balance — melody and rhythm in equal measure. Ādi Tālam (eight beats) lends its circular rhythm. Among its interpreters, Jon B. Higgins’s rendition remains legendary for tonal purity and meditative flow, remembered even after its online disappearance.


🌿 Coda — The Dual Spirit

Between Kaapi and Mohanam unfolds a dialogue of human emotion. Kaapi, with its yearning curve, mirrors dusk — reflective, soulful. Mohanam, radiant and open, embodies morning light. Ilaiyaraaja bridges them through orchestration, turning raga into character and emotion into story.

“In Raaja’s world, a raga is not notation — it is emotion finding its own grammar.”

✨ Closing Thoughts

From the quiet breath of Kanne Kalaimane to the exuberant pulse of Ninnukori Varnam, Ilaiyaraaja proves that ragas are not ancient relics but living beings. His Kaapi whispers memory; his Mohanam sings illumination. Together they complete a circle — silence and sound, shadow and sunlight.

— Dhinakar Rajaram

© 2026 Dhinakar Rajaram. All rights reserved. The concept, textual content, and images in this blog are original creations by the author. Videos embedded from third-party platforms remain the property of their respective copyright holders and are used solely for educational, reference, and illustrative purposes. Unauthorised reproduction or redistribution of any original content without prior written consent is strictly prohibited.

#KaapiRagam #MohanamRagam #IlaiyaraajaMagic #TamilFilmMusic #CarnaticCinema #MusicAnalysis #RagaExploration #KanneKalaimane #NinnukoriVarnam #SouthIndianClassics #FilmMusicDeepDive #DhinakarRajaram

Sunday, 18 January 2026

Two Vasanthams — Two Ragas, One Emotion

Two Vasanthams — Two Ragas, One Emotion

Two Vasanthams — Two Ragas, One Emotion

Ilaiyaraaja’s oeuvre represents the seamless convergence of classical rigour and emotive storytelling. His approach to raga is not merely technical but deeply human — each raga is a living entity, resonating with emotion and spiritual expression. Among his most captivating creations are two compositions sharing the suffix Vasantham, yet arising from entirely distinct melodic and emotional worlds: Mallika Vasantham and Kalyana Vasantham.

Though each raga has a unique parentage, scale, and personality, both evoke the subtle emotional hue known in Tamil as sōgam — a restrained, tender melancholy that lingers in the listener’s mind. Through these two compositions, Ilaiyaraaja demonstrates how ragas with disparate tonal structures can converge to produce a shared emotional resonance.

I. Mallika Vasantham – The Unheard Beauty

Film: Nyaya Geddithu (Kannada)
Song: Saavira Janumadhalu
Ragam: Mallika Vasantham — S G₃ M₁ P N₃ S | S N₃ D₁ P M₁ G₃ R₁ S
Parent Raga: Mayamalavagowla
Thalam: Chatushra Eka Talam
Singers: S. Janaki, S. P. Balasubrahmanyam
Actors: Roopa, Kannada Prabhakar
Music: Ilaiyaraaja

This composition is unique — the only song ever composed in Mallika Vasantham for cinema. Its raga, devised by Ilaiyaraaja, has never been used before or after in any film music. The scale, while rooted in Mayamalavagowla, exhibits traces of Kedaram and Shankarabharanam in both the arohanam and avarohanam, lending it subtle shades of classical depth.

Arohanam and Avarohanam

Arohanam: S G₃ M₁ P N₃ S
Avarohanam: S N₃ D₁ P M₁ G₃ R₁ S

The omission of R₁ in the ascent creates an airy, open progression, while its inclusion in the descent restores emotional grounding. This duality produces an internal tension — a yearning quality that moves effortlessly between luminous ascent and introspective descent.

Characteristic Phrases (Prayogas)

  • G₃ M₁ P–N₃ S — signature ascent evoking longing.
  • S N₃ D₁ P M₁ — descending sigh reflecting gentle melancholy.
  • P M₁ G₃ R₁ S — concluding phrases establishing repose and serenity.

Ilaiyaraaja’s treatment ensures smooth, continuous transitions; the song’s voice and orchestration glide between notes, producing a contemplative effect rather than overt dramatics.

Composition Analysis: Saavira Janumadhalu

The song embodies brother–sister affection, expressed through musical devotion rather than overt sentimentality. The opening prelude — S–N–D–P–M–G–R — declares the avarohanam before the rhythm enters, reflecting a reflective rather than declarative approach. The Chatushra Eka Talam lends a lilting cyclic motion, complementing the dialogue between S. P. Balasubrahmanyam’s grounded voice and S. Janaki’s tremulous timbre.

The orchestration — soft flutes outlining swara contours and muted strings sustaining harmonies — emphasises the emotional depth. Certain chordal choices lend fleeting shades reminiscent of Punnagavarali, which is why casual listeners sometimes confuse the raga, though its grammar is distinctly Mallika Vasantham.

Cultural Resonance: Nāga Panchami in Karnataka

In Karnataka, Saavira Janumadhalu is often played during Nāga Panchami, a festival celebrating familial protection and sibling bonds. Sisters pray for their brothers’ longevity and prosperity, offering milk or ghee on their backs, while worshipping serpent idols or anthills (putthu) as symbols of divine guardianship. Traditional foods such as Pooran Poli are prepared, and simple folk games are part of the day. In this context, the song functions as a melodic archana, reflecting prayer, protection, and familial love.

II. Kalyana Vasantham – Emotion Within Serenity

Parent Raga: Harikambhoji (28th Melakarta)
Arohanam: S G₂ M₁ D₂ N₂ S
Avarohanam: S N₂ D₂ M₁ G₂ S
Type: Audava–Audava (Pentatonic)

Kalyana Vasantham is capable of expressing both joy and subdued sorrow, depending on how Ilaiyaraaja phrases the swaras. Its open pentatonic structure omits R and P, allowing the raga to convey radiance or emotional depth.

1. Gnaan Gnaan Paadanum – Poonthalir

Singer: Jency Anthony
Mood: Joyous, radiant, pure

The song employs Kalyana Vasantham as a luminous melodic framework. Key phrases — G₂ M₁ D₂ N₂ S and S N₂ D₂ M₁ G₂ — unfold gently, with occasional touches of Srothaswini to add sparkle. Strings, bells, and soft pads highlight the raga’s purity, while the vocals embody innocence and devotional warmth.

2. Nenjil Ulla – Rishi Moolam

Singer: P. Jayachandran
Mood: Subtle sorrow, emotional outburst restrained within serenity

Here, the same raga expresses introspection and latent melancholy. Ilaiyaraaja elongates M₁–D₂–N₂ phrases, creating emotional suspension and release. The orchestration — sustained cellos and muted violins — supports this subtle sōgam, while the vocal delivery conveys a restrained, internalised emotional outpouring.

III. Comparative Reflection – Two Paths, One Emotion

AspectMallika VasanthamKalyana Vasantham
Parent RagaMayamalavagowlaHarikambhoji
TypeSampoorna (7 swaras)Audava–Audava (5 swaras)
MoodDevotional tenderness, sibling affectionJoy (Poonthalir), restrained sorrow (Rishi Moolam)
Key PrayogasG₃ M₁ P–N₃ S / S N₃ D₁ P M₁G₂ M₁ D₂ N₂ S / S N₂ D₂ M₁ G₂
Emotional CentreFamilial love, prayer, purityInner emotional spectrum — joy and spiritual reflection
Orchestral ColourVeena, flute, muted stringsStrings, cello, soft choral textures

Though structurally distinct, both ragas share a common emotional thread: inward reflection, devotion, and the subtle sōgam of restrained feeling. Ilaiyaraaja’s genius lies in this ability to adapt raga grammar for cinematic emotional landscapes, allowing joy, love, or sorrow to emerge from the same melodic material.

IV. Conclusion

In Saavira Janumadhalu, love is sanctified through devotion and sibling affection. In Nenjil Ulla, emotion is cathartic yet inward. In Gnaan Gnaan Paadanum, joy shines luminously. These two Vasanthams exemplify Ilaiyaraaja’s mastery — the art of translating raga into the human emotional spectrum. They are reflections rather than siblings, two distinct manifestations of the same poetic spirit.

References & Further Reading

#Ilaiyaraaja #MallikaVasantham #KalyanaVasantham #CarnaticRagas #FilmMusicAnalysis #SowgamRaga #IndianFilmMusic #RagaAnalysis #Musicology #ClassicalFusion #BrotherSisterLove #NagaPanchami #MelodicGenius #FilmSongRagas

Saturday, 4 October 2025

From Nalanda to NASA: Bharat’s Leap from Past Glory to Future Power

 
From Nalanda to NASA: Bharat’s Leap from Past Glory to Future Power

A meditation on Bharat’s timeless intellect — her journey from inherited grandeur to engineered greatness, where civilisational memory meets scientific modernity.


Make India Great Again: Bharat’s Rendezvous with Destiny

“Make India Great Again.” To some ears it may sound like a slogan borrowed from foreign political theatre. But in the Indian context, it is not a hollow catchphrase. It is a civilisational summons. For Bharat, greatness is no novelty to be engineered afresh; it is a patrimony to be reclaimed, recalibrated, and rendered relevant to the twenty-first century.

Our forebears gave the world the concept of zero, the rhythms of yoga, the curatives of Ayurveda, and philosophies that married reason with reverence. Colonisation, however, truncated this trajectory, leaving behind poverty and a fractured self-confidence.

Today, as Bharat strides into her Amrit Kaal, the time has come to blend ancient grandeur with modern vigour — to convert slogan into strategy, aspiration into arithmetic.


The Engines Already Whirring: Current Achievements

It would be churlish to deny that parts of the MIGA process are already in motion:

  • Economic Expansion: India has emerged currently as the world’s forth-largest economy and consistently the fastest-growing among major world economies.

  • Digital Alchemy: Aadhaar and UPI have wrought what the French call a coup de maître — turning even the humblest villager into a participant of the digital economy.

  • Spacefaring Prestige: ISRO’s Chandrayaan-3 touched the lunar south pole; Mangalyaan circled Mars at a fraction of Western costs — proof that thrift and triumph are not mutually exclusive.

  • Start-up Surge: With the world’s third-largest start-up ecosystem, India births unicorns at a pace that suggests entrepreneurial élan, not merely enterprise.

  • Democratic Depth: Despite cacophony and contestation, 600 million citizens cast ballots in the largest democratic spectacle on earth — res publica in its truest sense.

These are no trifles. They show that Bharat’s engines of greatness are idling, awaiting acceleration.


The Lacunae: Where We Falter

Yet plus ça change, plus c’est la même chose — the more things change, the more they remain the same. Progress coexists with persistent gaps:

  • Education as Quantity sans Quality: Enrolments soar but critical thinking and creativity languish.

  • Research Deficit: At a paltry 0.7% of GDP, India’s research spending is anemic. By comparison, Israel devotes over 5%, South Korea over 4%. Res ipsa loquitur.

  • Inequities Abound: Urban–rural divides, gender gaps, caste cleavages remain stubbornly unresolved.

  • Bureaucratic Drag: Noble schemes often perish in red tape, delayed funds, or indifferent implementation.

  • Environmental Neglect: Rivers run sullied, air is scarcely breathable, forests shrink. Without ecological dharma, greatness is but a chimera.


The Metrics of Magnitude: What MIGA Must Mean in Numbers

Greatness cannot subsist on poetry alone; it must be pegged to measurable horizons:

  • GDP per Capita: Today ~US$2,700 → Target: US$12,000–18,000 by 2047 — lifting Bharat from modest to middle-high-income status.

  • R&D Intensity: Today ~0.7% → Target: 2.5–3.5%sine qua non for genuine innovation.

  • Researchers per Million: Today ~260 → Target: 2,000+ — a tenfold increase to match OECD standards.

  • Innovation Index: Today ranked ~38 → Target: Top 20 within two decades.

  • Human Development Index: Today 0.685 → Target: ≥0.800, firmly in the “high human development” bracket.

In other words: to transform grandeur from rhetoric to reality, Bharat must invest in brains as much as in bridges, in laboratories as much as in highways.


Illustration: Charting Bharat’s Ascent — From Present Realities to 2047 Horizons

(A visual encapsulation of the Make India Great Again roadmap — juxtaposing India’s current developmental metrics with the aspirational benchmarks of 2047.)

 





The Raison d’Être: Why Bharat Must MIGA

Why must Bharat bother? Because mediocrity is an abdication of destiny.

  1. Demographic Dividend: A youthful nation today; a demographic time-bomb tomorrow if jobs and skills are absent.

  2. Geopolitical Gravitas: In a multipolar world, India cannot remain a mere “balancing power.” It must be a leading pole in its own right.

  3. Civilisational Continuity: A people who built Nalanda and Konark cannot forever subsist on borrowed technologies.

  4. Moral Responsibility: A planet in ecological peril looks to India — the land of prakriti reverence — to lead the green transition.

  5. Equity at Home: True greatness lies not in Gurgaon’s glass towers but in ensuring that a farmer’s child in Gadchiroli or a weaver’s daughter in Madurai has the same chance at dignity.

Thus, MIGA is no vanity project. It is raison d’être — the reason for being.


A Roadmap to 2047: Phases of Renaissance

  • Phase I (0–5 years): Raise R&D to 1% of GDP, double PhD slots, ensure universal broadband and reliable electricity.

  • Phase II (5–15 years): R&D to 2%, researchers per million to 1,000, Global Innovation Index into the Top 30.

  • Phase III (15–30 years): R&D beyond 2.5%, GDP per capita $12k–18k, HDI ≥0.800, innovation Top 20.

Ad astra per aspera — through hardships to the stars — must be our mantra.

 




 


 

 
Coda: The Indian Cadence

Let us not content ourselves with borrowed quips and imported dreams. Let us conclude with our own wisdom:

“யாதும் ஊரே, யாவரும் கேளிர்” - கணியன் பூங்குன்றனார்.புறநானூறு. 

"Every town is our hometown, and every person is our kinsman"- Kaṉiyan Pūngunṟanār - Purananuru, Sangam Era

If we live by that maxim, India will not merely be “great again”; she will be great anew — her lamp rekindled, her light radiating once more upon the world’s mantelpiece.


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#MakeIndiaGreatAgain #MIGA #India2047 #CivilisationalRenaissance #DevelopmentWithDharma #AdAstraPerAspera #MakeinIndia #Bharat #Swadesi


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