Date: March 11, 1948
Location: Secret Annex of INCOSPAR, CSIR Laboratory Grounds / Walchandnagar Hangar
The world knew the Council of Scientific and Industrial Research as a fledgling body of academics and bureaucrats cataloging India's modest scientific aspirations. The world was profoundly, deliberately wrong. Within the CSIR, buried beneath layers of bureaucratic camouflage and security classifications that didn't officially exist yet, operated a division that appeared on no public ledger, no budget document, no ministerial report: INCOSPAR—the Indian Committee for Space and Advanced Research. And while the public announcement of its formation was scheduled for years hence in the cautious timeline of conventional planning, it had already been a buzzing hive of clandestine activity since September 1947.
Deep within a high-security hangar in Walchandnagar—a facility that officially existed only as "Industrial Storage Facility 7-B" on municipal records—the air was thick with contradictions. The sharp tang of acetylene torches cutting through British steel mixed with the acrid smell of American electrical insulation being methodically disassembled. Machine oil pooled on concrete floors that had been poured just six months earlier, specifically designed to handle the weight of equipment that officially didn't exist here. The smell of ozone from arc welders hung in the air like industrial incense. This was not a place of manufacture. This was a place of systematic, sacred desecration.
Walchand Hirachand stood on a raised observation gantry, his hands gripping the steel railing with an intensity that had turned his knuckles white. Below him stretched a vista that would have seemed impossible just two years ago: the skeletal remains of three British-made Centurion tanks, stripped down to their frames like mechanical corpses in various stages of autopsy. Beside them, laid out with the reverence usually reserved for religious relics, sat a dismantled Rolls-Royce Nene jet engine. Each component had been carefully removed, catalogued, measured, and arranged in precise order on specially constructed tables. The turbine blades alone occupied an entire workstation, each one tagged with multiple identification numbers and surrounded by measurement instruments that cost more than most Indian workers earned in a year.
Beside Walchand, Shanti Swarup Bhatnagar, the Director of CSIR, was pointing to a series of blueprints spread across a drafting table. The documents looked less like conventional engineering drawings and more like polyglot manuscripts from some technological Tower of Babel—English annotations crowded against German technical specifications, which in turn competed for space with French metallurgical notes and Japanese manufacturing tolerances. Red ink corrections overlaid the original diagrams. Handwritten calculations filled every margin. This was the accumulated knowledge of empire being forcibly deconstructed and reassembled under Indian intention.
"It's not just about copying the shape, Walchand," Bhatnagar said, his voice carrying the particular weariness of a man who had spent too many consecutive nights in this hangar, surviving on tea and nervous energy. "Look at this turbine blade cross-section. The British used specific nickel-chrome alloys—we're talking precise ratios, down to fractions of a percentage point. These aren't arbitrary choices. The nickel content affects heat resistance. The chrome affects oxidation resistance. The molybdenum—yes, there's molybdenum in there too, we only discovered that last week—affects the high-temperature creep properties."
He traced a finger along one of the annotations. "If we use standard Indian steel, which is what we can reliably produce at scale right now, the engine doesn't just underperform. It melts catastrophically at ten thousand RPM. Not gradually—catastrophically. The turbine blades disintegrate, and you have chunks of superheated metal being flung through the engine casing at supersonic velocities."
Walchand's jaw tightened. His eyes remained fixed on the engine below, where a young engineer—barely twenty-five, his overalls stained with a rainbow of industrial fluids—was using a micrometer to measure the thickness of a turbine blade at multiple points along its length. The measurements had to be precise to the thousandth of an inch. At these tolerances, even thermal expansion from holding the component too long could throw off the readings.
"Then we don't use standard steel," Walchand said, his voice carrying the flat certainty of a man accustomed to bending industrial reality to his will through sheer force of logistics and determination. "We find the recipe. We crack the metallurgy. My engineers at Scindia have been working with the Godrej team and Kirloskar's metallurgists for three months now. We've already cracked the heat-treatment process for the armor plating on the amphibious carriers—and that was supposed to be impossible according to the British technical literature. If we can harden steel for a hull that needs to withstand both naval artillery and beach landings while remaining light enough to float, we can certainly harden it for a turbine."
"It's not the same problem," Bhatnagar protested, though his tone suggested he was playing devil's advocate rather than expressing genuine doubt. "Armor plating operates at ambient temperatures, or at most a few hundred degrees when it's been hit. These turbine blades are operating at temperatures that would melt normal steel in seconds. The thermal stresses alone—"
"Are just another engineering problem," Walchand interrupted. "Difficult, yes. Complex, absolutely. But solvable. Everything is solvable if you're willing to invest the time and resources."
This was the secret pact, the shadow arrangement that existed in the spaces between the official minutes of yesterday's symposium. Since the directive had been issued in September 1947—delivered personally by Prime Minister Anirban Sen in meetings that officially never occurred—a tripartite shadow board had been operating at the bleeding edge of Indian industrial capability. Tata's metallurgists, with their decades of experience in steel production and their growing expertise in special alloys. Walchand's heavy engineers, who understood the brutal physics of ships and locomotives and the massive machinery that built them. Lala Shri Ram's chemical experts from DCM, From Birla's Grasim, Modi, Thapar, who knew how to coax precise molecular behaviors from volatile compounds.
Together, they weren't just fixing the two thousand jeeps and trucks they had delivered to the government in September. They were performing what Bhatnagar had taken to calling "surgical autopsies" on every piece of Western hardware the government could get its hands on. The jeeps had been the perfect cover—"blueprinting" them, measuring tolerances to the thousandth of an inch, mapping every wire in the electrical harnesses, analyzing the rubber compounds in the gaskets, documenting the precise threading on every bolt, testing the metallurgy of every component from engine blocks to door hinges.
But the jeeps were just the beginning. Now they had tanks. Jet engines. Radar sets. Field artillery. Even a partially intact V-2 rocket guidance system that had somehow made its way from a British military surplus auction to a warehouse in Bombay to this hangar. Each piece of equipment was a treasure trove of technical knowledge, hard-won insights into manufacturing processes and design philosophies that the West had spent decades and billions developing.
Then comes a voice from their behind, that startled them.
"Anirban wants a domestic fighter jet by 1952," a voice spoke from the shadows of the gantry, and both men turned sharply.
Homi J. Bhabha materialized from the darkness like a ghost, though the effect was somewhat diminished by the stack of spectral analysis reports he was carrying and the distinct smell of chemical reagents that clung to his clothing. He looked exhausted in the particular way that brilliant minds look when they've been running on ambition, caffeine, and the terror of failure for too many consecutive weeks. His tie was loosened—nearly unthinkable for the usually impeccable Bhabha—and there were dark circles under his eyes that spoke of sleep becoming an optional luxury rather than a biological necessity.
"1952 is impossible, Homi," Walchand grunted, though his tone carried more frustration than conviction. "Four years. We don't even have a domestic lathe that can cut gears this precise. The British precision machinery we imported in the twenties and thirties is worn out, and the Americans have export restrictions on the new equipment. We can measure these components to any tolerance you want, but manufacturing them to the same specifications? That's a different problem entirely."
"That," Bhabha replied with a thin smile that didn't reach his bloodshot eyes, "is precisely why the Prime Minister is sending you to Europe next week. While you're 'reviewing' companies for potential joint ventures and examining their balance sheets and market positions, you won't just be looking at their financial statements. You'll also have a chance to look at their machine tools. You know we need five-axis milling machines,vacuum induction furnaces, precision measurement equipment that can verify tolerances and many other things that we can barely imagine right now."
He moved to the makeshift table and laid out the spectral analysis reports with the care of a card player revealing a winning hand. The papers were covered with graphs showing absorption spectra, tables of elemental compositions, and calculations dense with mathematical symbols.
"That's why If they won't sell us the technology to build the engine directly—and they won't, because they're not fools and they understand exactly what we're trying to do—then we buy the machines that make the machines. We buy the lathes that can cut the turbine blade molds with micrometer precision. We buy the furnaces that can achieve the exact thermal profiles needed for heat-treating the nickel-chrome alloys. We buy the testing equipment that can verify whether our metallurgy is actually working or whether we're producing expensive scrap metal."
"And if they won't sell us those either?" Bhatnagar asked.
"Then we buy older models and reverse-engineer them too," Bhabha said flatly. "Or we buy them through third parties. Or we acquire them as 'scrap' and rebuild them. We have already proven that we are creative when it comes to international procurement."
Walchand allowed himself a slight smile at that. His company's ability to acquire "surplus" equipment through creative interpretations of trade regulations was becoming legendary in certain circles.
"The DCM team has successfully reverse-engineered the propellant chemistry for the 25-pounder shells," Bhabha continued, pulling out another set of reports. "Lala Shri Ram's chemists have managed to stabilize the cordite formulation. It's not quite 'Western standard' yet—our burn rate is still about fifteen percent slower, which affects range and accuracy—but it's eighty percent there. More importantly, it's stable enough for storage and reliable enough for field use."
He looked up from the reports, his expression intense. "Do you understand what that means? It means that if the UK ever decides to cut off our ammunition supply—and they will threaten to do exactly that the moment we do something in foreign policy they don't like—our artillery won't go silent. We can manufacture our own shells now. Twenty thousand shells a month if we need to, all from domestic production."
The implications hung in the air like the smell of machine oil. Artillery shells weren't just explosive devices. They represented a complex integration of chemistry, metallurgy, precision manufacturing, and quality control. Every shell had to be identical to every other shell or the guns couldn't be accurately targeted. The propellant had to burn at exactly the right rate or the projectile would either fail to exit the barrel or burst it from overpressure.
"And the aerospace side?" Bhatnagar asked, moving them to the topic that dominated all their nightmares and dreams in equal measure.
"TVS, Murugappa, Tata's team at HAL in Bangalore is working on a modified airframe," Bhabha said, pulling out yet another set of diagrams. These showed sleek aircraft designs with twin-boom configurations, covered with notes about stress analysis, control surface sizing, and aerodynamic considerations. "They're emulating the de Havilland Vampire's twin-boom design, though we're modifying the proportions and the internal structure. The twin-boom configuration offers several advantages—it moves the engine exhaust away from the tail surfaces, provides excellent visibility for the pilot, and it's structurally efficient for the centerline-mounted jet engines we're targeting."
He traced a finger along one of the diagrams. "But the secret isn't in the airframe. Any competent aeronautical engineer with access to wind tunnel data can design an airframe. The real challenge, the absolute killer, is the engine. You can build the most beautiful airframe in the world, but without an engine that can deliver sufficient thrust-to-weight ratio, you just have an expensive glider."
"The engines," Walchand murmured, following the logic to its inevitable conclusion.
"The engines," Bhabha confirmed with grim satisfaction. "Which is where things get interesting. Godrej's research laboratory and Kirloskar's experimental workshop have been stripping down captured German and Japanese jet engines we found in the British surplus piles. You'd be amazed what the British classified as 'surplus' and sold off for scrap value after the war. They were so focused on destroying the German and Japanese industrial capability that they didn't think carefully about where those captured examples might end up."
He pulled out photographs showing engine components in various states of disassembly. "We've got a Jumo 004 from a Messerschmitt Me 262, though it's in terrible condition—it looks like it was on fire when the aircraft was shot down. We've got what we believe is a Japanese Ne-20 from a Kikka, though the documentation is incomplete and some critical components are missing. And through methods that it's better not to discuss in detail, we've managed to acquire several examples of British and American engines in various states of assembly and disassembly."
Walchand leaned forward, his interest sharpening. "Which models?"
"A Rolls-Royce Derwent V, mostly complete. Two General Electric J33s with significant damage but enough intact components to be useful. And—this is the real prize—a nearly complete Rolls-Royce Nene, which is what you're looking at down there." Bhabha gestured to the dismantled engine on the hangar floor. "The Nene is the most advanced centrifugal-flow turbojet currently in production. Five thousand pounds of thrust. The British are using it in their latest fighters. The Americans licensed it and are calling it the J42. Even the Soviets are copying it—Stalin bought several engines from Rolls-Royce and has his engineers tearing them apart exactly like we're doing."
"So we're in good company," Bhatnagar observed dryly.
"We're in necessary company," Bhabha corrected. "Every nation that wants technological independence is doing exactly what we're doing. The difference is that most of them are just trying to copy one specific design. We're trying to understand the fundamental principles so we can design our own engines adapted to our specific materials and manufacturing capabilities."
He pulled out more photographs, these showing engine components under microscopes and spectroscopic analysis equipment. "The Germans used inferior materials because their supply lines were disrupted, but they compensated with clever aerodynamic design and turbine blade cooling systems. The Japanese had excellent metallurgy in some areas but struggled with consistent quality control across their industrial base. The British and Americans have the best overall integration of materials, design, and manufacturing, but their designs assume access to materials and precision machinery that we don't have yet."
"So what's our approach?" Walchand asked.
"Synthesis and adaptation," Bhabha replied immediately. "We take the best ideas from each tradition and create something that plays to our strengths while working around our limitations. The German approach to compressor blade design is elegant and requires less precision machining. The British approach to combustion chamber layout is more efficient but more complex to manufacture. The American approach to materials selection assumes access to specialized alloys we can't produce yet, but their testing protocols are excellent and we can adopt those immediately."
He gestured to the hangar floor, where teams of engineers were working at different stations. "Over there, they're analyzing the turbine blade cooling passages from the Nene. Over there, they're studying the combustion chamber design from the J33. That station is focused on understanding the fuel injection system. That one is mapping the electrical control systems. Every team is documenting everything they learn in standardized technical reports that go into a central database."
"How many engineers do we have working on this?" Bhatnagar asked.
"Here at Walchandnagar, about forty full-time, with another twenty providing specialized support. At HAL in Bangalore, another sixty on the airframe side. At the various company laboratories—Tata, Godrej, Kirloskar, DCM,Birla, L&T—maybe another hundred who are working on specific subsystems and components. So call it two hundred engineers total, most of them under thirty years old, all of them working on the most advanced aerospace technology in the world."
Walchand looked down at the young engineers on the hangar floor. They moved with intense focus, handling components with reverence and precision. At one station, a team was photographing every surface of a turbine blade assembly before disassembly, creating a visual record that would allow perfect reassembly and serve as a reference for manufacturing. At another, an electrical engineer was using an oscilloscope to map the ignition sequence, capturing the precise timing of each spark. At a third, a chemist was analyzing the composition of a thermal barrier coating, trying to understand what made it resistant to the extreme temperatures of the combustion chamber.
"The Prime Minister mentioned the 'Soviet Style' state control yesterday at the symposium," Walchand mused. "But here, in this hangar, it feels very different. Very... American. Competitive. Fast-moving. Pragmatic rather than ideological."
"It's the Anirban Way," Bhabha said, and there was something almost reverent in his voice. "Use the State to protect the borders, establish the strategic framework, provide the resources and security. But use the hunger of the private houses to build the teeth. He understands something that the pure socialists don't grasp and the pure capitalists underestimate: a PSU bureaucrat won't stay up until four in the morning wondering why a fuel pump is cavitating. He has no personal stake in solving that problem beyond keeping his job and avoiding criticism. But an engineer working for a private company? He knows his reputation depends on solving that problem. His company's fortune depends on it. His own career advancement depends on it."
"And the company owners themselves," Walchand added. "I'm going to Europe next week not because the government is ordering me to go, but because I want those machine tools. I want India to have the capability to manufacture precision components. I want my grandchildren to live in a nation that builds jet fighters and doesn't have to beg the British for permission to buy them. That hunger, that personal investment in the outcome—you can't replicate that in a purely state-controlled system."
"But you also can't rely purely on private initiative," Bhatnagar countered. "Without state coordination, we'd have five companies all trying to reverse-engineer the same jet engine, duplicating effort and wasting resources. Without state security apparatus, the British would know exactly what we're doing and would take steps to cut off our access to samples and equipment. Without state funding, most of these companies couldn't afford to invest in technologies that might not generate returns for a decade."
"Hence the mixed model," Bhabha concluded. "The state provides coordination, security, strategic direction, and patient capital. The private sector provides drive, innovation, competitive pressure, and practical engineering talent. Neither could succeed alone, but together..." He gestured to the hangar floor. "Together, we might actually pull this off."
Walchand nodded slowly, a predatory gleam entering his eyes. He thought back to the symposium, to the conversation about expansion plans and sector selection. He thought of the faxes that were probably being sent to the embassies right now, laying the groundwork for his European trip. The diplomats thought they were facilitating routine business visits. They had no idea they were enabling industrial espionage on a national scale.
"I and my children will leave for Rome and London in twelve hours," Walchand said. "Rome first because the Italians are desperate for foreign currency and will sell almost anything. Then London, Paris, possibly Stockholm if I can arrange meetings with the Swedes. I'll get you those vacuum furnaces, Homi. I'll get you the five-axis milling machines. Even if I have to buy entire factories and ship them back piece by piece as 'scrap metal for our shipyard operations.'"
"That," Bhabha said with a laugh that held genuine humor for the first time that evening, "is exactly what the Prime Minister is counting on. He told me, just last week, that if there's one thing he knows about Indian industrialists, it's that they're magnificently creative in their interpretations of international trade regulations. He said the British spent two hundred years teaching us how to work around their rules. Now we're going to use those skills for our own benefit."
"There's strategy in that," Walchand said.
"Anirban doesn't think in terms of poetry. He thinks in terms of industrial capacity, technological sovereignty, and geopolitical leverage. And he thinks twenty or thirty years ahead. This isn't just about building one fighter jet by 1952—though that's the first milestone. He's building an industrial ecosystem that will still be evolving and advancing in 1970, 1980, 2000."
A commotion from the hangar floor interrupted their conversation. One of the engineers was shouting—not in alarm but in excitement—and waving papers at his colleagues. Within seconds, a crowd had gathered around him, and the noise level in the hangar had risen dramatically.
"What's happening?" Walchand called down.
A young metallurgist looked up, his face flushed with excitement, his eyes shining.
"Sir! We've successfully replicated the carbide coating on the turbine blade tips! The microhardness test shows values within five percent of the British original! Five percent!"
The three men on the gantry looked at each other. Despite the exhaustion, despite the overwhelming scale of the challenges still ahead, broad grins spread across their faces.
"Five percent," Bhatnagar murmured. "That's extraordinary. That's within manufacturing tolerance. That's production-ready."
"That's one component," Bhabha said, but his tone was more proud than pessimistic. "One critical component out of thousands that we need to master. But it's real progress. Measurable, reproducible, verifiable progress."
"How did they do it?" Walchand asked, already thinking about how to scale up the process.
Bhabha pulled out a technical report that had apparently just been delivered. "They tried fourteen different coating processes before finding one that worked. Plasma spray deposition with a modified feedstock composition. They had to custom-build the spray equipment because nothing available commercially could achieve the required parameters. The coating thickness is controlled to within five microns. The adhesion strength is actually slightly better than the British original."
"Better?" Bhatnagar asked sharply.
"Better. Not just equivalent—better. Which tells you something important about this entire enterprise. We're not just copying Western technology. We're learning to understand it well enough to improve on it. We're making different choices based on our specific circumstances and material availability, and sometimes those choices yield superior results."
Walchand gripped the railing again, but this time the gesture was one of triumph rather than tension. "That changes the game. If we can improve on their designs, not just copy them, then we're not playing catch-up. We're entering genuine competition."
"Not yet," Bhabha cautioned. "One improved coating process doesn't make us competitive with Rolls-Royce. But it demonstrates the principle. And more importantly, it shows that Indian engineers are capable of world-class technical work when given the right resources and challenges."
They descended from the gantry, their footsteps echoing on the metal stairs. On the hangar floor, they paused to examine the successful coating test results, asking detailed questions, offering congratulations, reinforcing the sense that this work mattered at the highest levels.
They spent another hour in the facility, examining different projects, talking with engineers, reviewing progress reports. The pattern was consistent: slow, incremental progress punctuated by occasional breakthroughs like the turbine blade coating.
Two steps forward, one step back, occasionally three steps forward. The cumulative effect was a steady accumulation of knowledge and capability.
At one station, they found a team working on a captured German radar set, trying to understand the magnetron technology that generated the microwave pulses. At another, engineers were examining the hydraulic systems from a British tank, documenting every valve and actuator. At a third, chemists were analyzing the composition of various aviation fuels, trying to understand what properties made them suitable for jet engines versus piston engines.
They reached a section of the hangar that had been curtained off—a workspace where something even more sensitive than jet engines was being studied. Bhabha and Bhatnagar showed their special clearance badge to the guard, and they were allowed through.
Inside, they found themselves looking at something that made even the jet engine seem conventional: the partially intact guidance system from a German V-2 rocket.
"Where did we get this?" Walchand asked, his voice barely above a whisper.
"According to Vikram it's from British military surplus auction," Bhabha replied with a slight smile. "They classified it as 'non-functional electronic scrap.' Which it technically is—the actual guidance computer was destroyed before they sold it. But enough of the mechanical gyroscope system survived that we can understand the principles. And the servo systems that controlled the rocket's fins during flight are mostly intact."
"Why are we studying rocket technology?" Walchand asked. "That seems like it's beyond the scope of what we need for a fighter jet."
"It is," Bhabha confirmed. "But According to Vikram , Anirban is already thinking about what comes after fighter jets. Ballistic missiles for strategic deterrence. Satellites for communications and reconnaissance. Space launch capabilities that would give us technological prestige and practical capabilities. Vikram also genuinely invested in this. With Anirban, Vikram also wants by 1978,India to be a spacefaring nation."
"1978," Walchand repeated. "That's thirty years from now."
"Exactly. Which sounds impossibly far away until you realize it's only one generation. Children born this year will be thirty years old in 1978. If we start training aerospace engineers now, building the industrial base now, accumulating the knowledge now, then in thirty years we could genuinely be launching satellites."
Bhatnagar was examining the V-2 components with fascination. "The guidance precision on these systems is remarkable. Even with 1940s technology, they could hit targets hundreds of kilometers away."
"The principles are applicable to peaceful purposes too," Bhabhwnoted. "According to Vikram, his team already working on theory and practicality of Satellite launch vehicles and their guidance systems. As it can also use for civilian sectors. The difference is in how you use the technology."
Finally, as midnight approached, they made their way toward the hangar exit. The night air outside was cool and clear, a relief after the heat and industrial smells of the hangar. Above them, stars glittered with the particular clarity they achieved in areas without significant light pollution.
Walchand reached his car first, a Scindia-modified Ambassador that looked ordinary but concealed several interesting engineering improvements under the hood. His son and daughters was in the passenger seat, sleeping peacefully as he fell asleep while reading technical documents.
"They should be sleeping in home," Bhatnagar observed.
"They insisted on coming," Walchand replied. "They wants to see everything, learn everything. And I also wants it, because by the time they running the company, I want them to understand not just business but engineering, not just profit margins but technological sovereignty." He shook hands with both men. "I'll see you when I return from Europe. With machine tools, if all goes well."
Bhatnagar departed next. As the Director of CSIR approached his vehicle, two figures materialized from the shadows—NSG commandos in plain clothes, their eyes constantly scanning the perimeter. One opened the rear door of the black government Ambassador while the other moved to the front passenger seat. A third vehicle, an escort car with additional security personnel, idled nearby with its lights off.
"Still think the protection is excessive, Director?" one of the commandos asked with professional courtesy.
"I understand the necessity," Bhatnagar replied, climbing into the back seat. "Doesn't mean I have to like having shadows everywhere I go."
"You're not just the Director of CSIR, sir," the commando said quietly as he closed the door. "You're a Jewel. The Prime Minister was very clear about that."
The two-car convoy pulled away smoothly, heading back toward Delhi. Bhatnagar had reports to write, budgets to justify, the endless bureaucratic machinery that kept CSIR functioning as a legitimate scientific body even while hosting operations like this one.
The NSG had been assigned to him three months ago, even before Anirban publically announce that he will form the NSG, after the first successful tests of the cordite formulation. Anirban Sen's message had been direct: the men building India's technological future were too valuable to lose to accidents, sabotage, or foreign intelligence operations.
Bhabha stood alone in the darkness for a moment, watching Bhatnagar's convoy disappear. Then he turned back to look at the hangar one final time. The lights inside still burned bright, visible through the high windows. He could hear the faint sounds of work continuing—the whine of precision tools, the occasional clang of metal, voices in technical discussion.
He thought about what Walchand had said. A domestic fighter jet by 1952. That was the public goal, the one that would be announced eventually. The one that industrialists and engineers and even foreign observers might eventually learn about.
But there were other timelines. Other projects. Things that existed in classifications beyond even this facility's clearance level.
Bhabha reached into his jacket pocket and pulled out a folded document. Even in the darkness, he knew what it said. He'd memorized the key dates weeks ago.
TAPS-1—the Tarapur Atomic Power Station, though it wouldn't be called that publicly for years yet. The Prime Minister wanted a civilian nuclear power generation plant operational by 1956. Eight years. The world thought India was decades away from nuclear technology. They had no idea that Bhabha's other team, the one that didn't work in this hangar, was already laying the groundwork. Uranium prospecting. Heavy water production. Reactor design studies. All hidden under the cover of "fundamental physics research" and "geological surveys."
And the other timeline, the one that made his hands shake slightly when he thought about it too hard.
A nuclear warhead by 1952.
The same year as the fighter jet. Four years. The Prime Minister had been very clear about this in their last private meeting. "The world is dividing into nuclear powers and everyone else, I will not allow India to be in the 'everyone else' category. We need the deterrent before anyone realizes we're capable of building it."
Bhabha looked back at the hangar one more time. If the Americans and Soviets knew what was really happening in India right now—not just the jet engine reverse engineering, which they might suspect, but the nuclear program—they would scream. They would demand inspections. They would threaten sanctions.
They would do everything in their power to prevent India from joining the nuclear club.
Which was precisely why absolute secrecy was essential. The jet fighter program could eventually be revealed. It would shock people, certainly, but it wouldn't fundamentally upset the global order. Nations built fighter jets. That was conventional military technology.
But nuclear weapons? Nuclear power? Those were the technologies that separated great powers from everyone else. Those were the capabilities that gave nations the ability to sit at the table as equals, to make demands that couldn't be ignored, to ensure their survival in a world that was increasingly being divided between the nuclear-armed and the vulnerable.
"If they only knew," Bhabha murmured to the night air. "If the world knew what Anirban is really planning..."
But they wouldn't know. Not until it was too late to stop it. Not until India had crossed thresholds that couldn't be uncrossed, achieved capabilities that couldn't be taken away.
The Americans and Soviets would scream eventually. But by then, India would have the bomb. India would have nuclear power. India would be a reality that had to be accommodated rather than a threat that could be prevented.
Bhabha folded the document and returned it to his pocket. He walked toward his own car, but it wasn't alone. Like Bhatnagar's vehicle, his black Ambassador was flanked by NSG commandos. Four of them this time—the atomic program merited even heavier protection than conventional weapons research. Two men in the lead escort vehicle, two more in a trailing car. All armed with Sterling submachine guns concealed under their jackets. All trained to respond to threats that ranged from assassination attempts to foreign intelligence kidnapping operations.
The head of his security detail, a Sikh commando named Singh, opened the rear door. "Dr. Bhabha. Trombay?"
"Yes. Trombay."
As Bhabha settled into the back seat, Mr. Singh took his position in the front passenger seat, his hand never far from his weapon. The driver was also NSG—they took no chances with civilian drivers who might be compromised. The three-car convoy formed up smoothly, a choreographed security protocol that had been practiced dozens of times.
"Long night, sir?" Singh asked as they pulled away.
"Every night is long these days," Bhabha replied, looking out the window at the receding hangar. "But necessary."
"The Prime Minister asked me to relay a message, sir," Singh said, his voice lowering.
"He said to tell you that the Trombay facility's security perimeter has been expanded again. Another fifty CISF assigned as of yesterday. He said—and these were his exact words—'I'm not taking any chances with the crown jewels.'"
Bhabha allowed himself a slight smile. Crown jewels. That's what Anirban called the nuclear program. Not publicly, of course. In public, it was "fundamental physics research" and "peaceful atomic energy development." But in private, in the meetings that officially never happened, Anirban was brutally clear about what he wanted and why.
"Tell the Prime Minister his message is received and appreciated," Bhabha said.
The convoy moved through the darkness with practiced efficiency. The lead car scanned ahead for threats. The trailing car watched for pursuit. In the middle, Bhabha sat with his thoughts and his secrets, protected by men who would die to keep him alive.
Because he wasn't just a physicist anymore. He was the architect of India's atomic future. The man who held in his mind the calculations that would split atoms, the designs that would generate electricity, the weapon specifications that would make India a power that couldn't be threatened with impunity.
The car of Bhabha, with its heavy protection of NSG commandos forming a security envelope around it—just as Bhatnagar's vehicle had been similarly protected—disappeared into the darkness, heading toward Trombay and secrets that made even jet engines seem mundane. Behind them, the Walchandnagar hangar lights continued to burn, and the sound of the future being built continued into the night.
Inside that hangar, young engineers thought they were working on India's most advanced technology. They had no idea that a hundred kilometers away, in a facility they'd never heard of, other scientists were working on something that would change the fundamental calculus of global power.
Two timelines. Two programs. Both racing toward the same year: 1952.
The fighter jet would make headlines and demonstrate India's industrial capability.
The bomb would change everything.
India was waking up. And the world had no idea what was coming.
[ Now tell me who is this Vikram?]