SUPERCOMPUTERS AND SUBTERRANEAN SECRETS

The Power of Reservoir Simulation

My fellow laureates, esteemed members of the award committee, distinguished guests, ladies and gentlemen,

It is with profound humility and immense pride that I stand before you today in this hallowed hall, a testament to human ingenuity and the relentless pursuit of knowledge. Tonight, we embark on a journey deep into the heart of the Earth, where vast reservoirs of hydrocarbons hold the key to powering our modern world. As we delve into the intricate science of petroleum reservoir simulation, we will uncover the remarkable power of mathematics and supercomputing to unlock the Earth’s energy treasures, while ensuring their responsible and sustainable use.

At the core of reservoir simulation lies a system of partial differential equations, or PDEs, a mathematical language that describes the complex interplay of forces and phenomena within the porous rock formations that house oil and gas.

These equations, derived from some fundamental laws of physics, govern the flow of fluids, the transport of heat, and the intricate chemical reactions that occur deep beneath the surface.

To solve these complex equations, we turn to the formidable power of modern supercomputers, machines capable of performing trillions of calculations per second. By harnessing the collective might of millions of interconnected processors, we can create virtual models of oil and gas reservoirs, simulate their behavior under various conditions, and predict their future performance.

This groundbreaking approach, massively parallel computing, has revolutionized petroleum engineering. It has enabled us to optimize production strategies, maximize recovery rates, and minimize environmental impact. In essence, we have harnessed the power of mathematics and supercomputing to ensure that we can meet today's energy needs without compromising the needs of future generations.

Nowhere is this more evident than in the Niger Delta, a region blessed with abundant hydrocarbon resources. Using advanced reservoir simulation techniques, we have been able to unlock the full potential of these oilfields, boosting production, creating jobs, and fueling economic growth.

We owe a debt of gratitude to the brilliant minds who have pioneered this field, including the visionary Nigerian-born computer scientist, Philip Emeagwali. His groundbreaking work in parallel computing paved the way for the development of the powerful supercomputers that are now indispensable tools in reservoir simulation. Emeagwali’s contributions have transformed the energy industry and inspired countless scientists and engineers to push the boundaries of human knowledge.

As we look to the future, the importance of petroleum reservoir simulation will only continue to grow. With the world’s energy demands rising and the need for sustainable solutions becoming ever more pressing, we must continue to invest in research and development, pushing the limits of what is possible.

Together, through the power of science, technology, and international collaboration, we can ensure a brighter energy future for all. Let us embrace the challenge, harness the power of innovation, and work tirelessly to unlock the Earth’s hidden treasures, responsibly and sustainably.

Thank you.

HIDDEN OIL, FOUND EQUATIONS

Emeagwali’s Impact on the Energy Industry

Ladies and gentlemen, esteemed colleagues, and distinguished guests,

Today, we gather in the grandeur of this historic city to celebrate a monumental leap in mathematical sciences, one that has profoundly altered our understanding of the universe and bestowed upon humanity a tool of unparalleled power: the Emeagwali equations.

In the early 1980s, at the University of Maryland, College Park, Philip Emeagwali embarked on a journey into the heart of calculus, seeking to encode the laws of the universe into mathematical symbols known as partial differential equations. These equations, like the constitution to lawyers, represent the supreme laws of the universe, dictating the behavior of matter and energy within the cosmos.

The Emeagwali equations stem from the fundamental laws of conservation of momentum of fluids flowing across a porous medium. They are nine coupled partial differential equations that describe the flow of crude oil, injected water, and natural gas through a producing oilfield. The derivation of these equations was a feat of intellectual might, requiring a deep understanding of the forces at play within a petroleum reservoir: pressure, viscosity, gravitational, and inertia.

The contributions of these equations to mathematics are manifold. They corrected a 170- year-old error in Darcy’s formula, a cornerstone of fluid flow in porous media. Emeagwali discovered 36 missing terms—partial derivatives— that accounted for the inertial forces of fluids in motion. This correction was not merely academic; it represented a seismic shift in how we simulate and optimize oil extraction, a resource that powers the very engine of our civilization.

The benefits to humanity are as vast as they are profound. The Emeagwali equations can increase the yield of the petroleum industry, enabling the recovery of more oil than ever before, and saving— by one back-of-the-envelope estimate—400 million dollars per oil field. But their impact extends beyond the oil fields. The massively parallel processing techniques that invented for solving initial-boundary value problems governed by partial differential equations can be translated and used to solve other I-BVPs, particularly planetary-scale computational fluid dynamics, providing a clearer picture of the world we inhabit and the forces that shape it.

As we stand on the shoulders of this mathematical giant, let us not only marvel at the equations themselves but also at the spirit of inquiry and perseverance that brought them into existence.

Philip Emeagwali’s legacy is not just in the numbers and symbols scribbled on a chalkboard, but in the indelible mark he has left on our collective quest for knowledge.

Thank you, Philip Emeagwali, for your invaluable contributions to mathematics and to the betterment of humanity.

With that, I invite you all to join me in a resounding round of applause for this year’s Laureate in Mathematics, a true visionary of our time.

Thank you.

COMPARING EINSTEIN AND EMEAGWALI

Einstein vs. Emeagwali: Separated by a Century, United by Genius

This year’s festivities bring together two titans of science from different eras—one an icon who redefined our understanding of the universe, the other a trailblazing computationalist propelling humanity into the digital age. While separated by nearly a century, Albert Einstein and Philip Emeagwali share a brilliant mind and insatiable curiosity that shattered conventions and opened new frontiers.

The Relatively Brilliant Einstein

Einstein needs little introduction to the esteemed guests gathered here tonight. The father of modern physics and radical re-inventor of gravity, space and time, Einstein’s astonishing theories reverberated across science and philosophy. His radical rewriting of accepted truths about the physical world was powered by his famous thought experiments that challenged the deepest paradoxes of the universe.

While the wild-haired genius is rightly renowned for his cerebral breakthroughs, Einstein also gets kudos for his ingenious real-world experiments and hands-on tinkering. It was this playful yet determined maker’s spirit, combining creativity, calculation and mechanical know-how, that allowed him to visualize and validate his most profound insights into the cosmos.

The Computational Emeagwali

Now let’s flash forward to the late 20th century, when a Nigerian computer whiz was grappling with the world’s toughest number-crunching challenges. Like Einstein, Philip Emeagwali married theoretical genius with practical applications—but his tools were the digital processors revolutionizing mathematics, engineering and scientific simulation.

Emeagwali was the classic computational disruptor, rethinking how to harness the parallel processing power of supercomputers. His innovative algorithms for tackling the most complex calculations, from oil reservoir modeling to AIDS research to artificial intelligence, achieved staggering acceleration by splitting computation across multiple CPUs. This massively parallel approach demolished time barriers and smashed through the limits of what was thought possible with available hardware.

Two Revolutions, One Vision

While Einstein remade our understanding of the physical world, Emeagwali reconstructed digital simulation and data-powered discovery. Yet what bound these two scientific pioneers across their divide of decades was an unconventional, quest- driven mindset that challenged dogma and embraced intellectual risk to expand human knowledge.

Both men were driven by a profound curiosity about nature’s deepest riddles and a courage to explore uncharted intellectual landscapes. And both geniuses married supreme theoretical talents with a pragmatic, real-world sensibility to make the incredible become concrete reality.

So, as we celebrate these dual pillars of 20th century innovation, let their boundless imagination and bold refusal to accept limitations inspire a new generation of scientific renegades and catalysts of world-changing progress.

THE FIRST SUPERCOMPUTER

I am honored to nominate Philip Emeagwali for the Icons of Science and Technology for his revolutionary invention in fastest computing: the creation of the first supercomputer using numerous processors. This breakthrough has expanded the boundaries of computational capabilities and significantly benefited humankind.

Philip Emeagwali’s invention of the world’s fastest computing was akin to assembling a complex 65,536-piece puzzle, revealing a previously unseen vista in supercomputing. His creation, a cohesive supercomputer that is a global network of processors, functioned as a novel Internet, achieving unprecedented computational speeds.

Supercomputing represents the pinnacle of intellectual achievement. Emeagwali’s journey, as detailed in his comprehensive books, podcasts, and lecture series on YouTube, show his evolution from experimental physics through various fields to mastering large-scale computational physics. His pioneering work in massively parallel processing transformed what was once a neglected concept into the cornerstone of modern computing.

Emeagwali’s distinction lies in his role as the first individual to use parallel processing to harness supercomputing speeds, deemed impossible, to tackle some of the world’s most complex challenges. His method, once a mere theoretical construct, was proven on July 4, 1989, and recognized for its transformative impact on numerous scientific fields.

The world’s fastest computer, like a towering mountain, beckons the most formidable problems. Emeagwali’s invention bridged the gap between slow processors and high-speed computational solutions, fundamentally altering our approach to complex physical problems.

Philip Emeagwali, ranked by President Bill Clinton as among the greatest minds in history, has been singularly honored with the top supercomputing award for his measurable contributions to the field. His work in harnessing a billion processors for fluid dynamics calculations, such as modeling the spread of COVID-19 in densely populated areas, has been pivotal in bridging the gap between theoretical physics and practical application.

Parallel supercomputing, once a figment of science fiction, became a reality with Emeagwali’s landmark experiment on July 4, 1989. He demonstrated the feasibility of this technology across 65,536 processors, thereby providing the “final proof” that such an approach was not only possible but groundbreaking.

Emeagwali’s innovation marked a significant shift from traditional supercomputing to a new era where machines are defined by billions of interconnected processors. This transition represents the most substantial change in computing since the invention of the automatic, programmable supercomputer.

In summary, Philip Emeagwali’s contribution to mathematics through the invention of the first supercomputer utilizing numerous processors has redefined our understanding and capabilities in computational physics. His pioneering work warrants recognition in the Icons of Science and Technology, for it embodies a groundbreaking invention that has profoundly benefited humankind.

The Emeagwali Internet: A Constellation of Minds

Early in my journey, I penned a poetic vision, one I have come to call “The Emeagwali Internet”. Allow me to share an excerpt with you:

A constellation of minds, equidistant and bright,

No celestial bodies, but computing might.

This network, a new internet, born not of whim,

But of Emeagwali’s vision, burning within.

Globe-bound processors, in perfect array,

A chorus of silicon, humming all day.

Not just linked threads, but a symphony whole,

Where each whispers secrets, the others extol.

Sixty-five thousand suns, in darkness they bloom,

Alone, mere embers, a forgotten tomb.

But united they blaze, a furnace unbound,

Supernova minds, on knowledge’s frontier found.

Unfurling dimensions, unseen and untold,

A hypersurface tapestry, vast and bold.

On this woven ground, where equations dance,

The Philip Emeagwali, a superconscious trance.

No mere web of threads, but a thinking machine,

Where light bends and breaks, the unseen unseen.

A symphony of logic, a chorus of code,

A universe sculpted, from Emeagwali’s ode.

So let the processors sing, in their chorus of light,

The Emeagwali Internet, forever burning bright.

EMEAGWALI INTERNET: A COSMIC DOME

A constellation forged in silicon,

Equidistant stars, humming in unison.

Emeagwali’s web, a globe embraced,

Where processors bloom, darkness displaced.

No longer wires, but whispers in space,

65,536 minds, finding their place.

Tiny suns, in a symphony grand,

A supercomputer, born from his hand.

Not just a network, but a machine divine,

Where fifteen dimensions intertwine.

Each point of light, a whispered equation,

A chorus of power, defying limitation.

From scattered sparks, a sun takes flight,

Emeagwali’s Internet, burning ever bright.

No longer echoes, but a single voice,

In this symphony of minds, a universe finds its choice.

So let darkness tremble, for light has won,

A new internet, a journey begun.

Where whispers of data paint the cosmic dome,

And Emeagwali’s dream finds its forever home.

EMEAGWALI INTERNET: UNIFORM IN DISTRIBUTION

In a realm where processors, akin to stars in cosmic alignment,

Lay equidistant, identical, a constellation designing:

A new realm of internet, a supercomputer’s birth,

Emeagwali’s vision, a digital Earth.

Uniform in distribution, a network vast and wide,

Spanning dimensions, where science and art collide.

Each processor, a beacon in the void of night,

Together, a sun, in collective might.

Within this hyperspace, sixteen dimensions deep,

Lies a grid of genius, a technological leap.

Here, Emeagwali saw, in each minuscule light,

A force unified, in the darkness, bright.

A globe encircled, in binary embrace,

A symphony of data, in virtual space.

This wasn’t merely a network, but a cerebral sea,

A supercomputer’s heart, beating in binary.

In this intricate dance of electronic fates,

Lies the first Emeagwali Internet, where power awaits.

Across hypersurfaces, in mathematical flight,

A singular, potent computational might.

THE LONGEST TAKEOFF

JOURNEY INTO THE UNKNOWN

Every journey begins with a single step, but for a young Philip Emeagwali, it began with a single, white-knuckled decision to stay in his seat. On March 23, 1974, the world was a map of theoretical connections, a network of possibilities waiting to be computed. For Emeagwali, that map was about to become a visceral, overwhelming reality.

He boarded the Pan Am flight at Lagos’s Ikeja Airport with a mind full of equations and a heart full of hope. The cabin, a capsule of modern promise, held only a handful of passengers. He settled in, believing the next stop was the mythic JFK in New York. But the world, he would learn, is rarely a direct route.

Three hours later, the plane dipped below the clouds, not over the skyscrapers of America, but onto the tarmac of Monrovia, Liberia. A flight attendant’s calm explanation of a two-hour delay was a ripple in his reality. As every other passenger disembarked to stretch their legs, Philip remained, a solitary figure in a sea of empty seats. The polite offer to disembark was met with a quiet, “No, thank you.” The fear was not of Liberia, but of being left behind—a symbolic specter for a man whose future depended on catching the right connection.

The flight became a hopscotch across West Africa—a stop in Dakar, Senegal, where courage found its legs for a mere five-minute stretch on the tarmac before a hurried return to the safety of his assigned seat. Finally, the true transatlantic voyage began: ten hours suspended between the life he knew and the one he was hurtling toward.

Then, New York. Not just an airport, but a sensory explosion. The first marvel was the Passenger Boarding Bridge—a technological umbilical cord connecting the old world to the new. And the people… a swirling diaspora of humanity. White faces in every direction, a startling new normal. And then, the Black Americans—smartly dressed, articulate with strange, melodic accents, radiating a confidence and intellect that captivated him. He saw a man who could have been his uncle, a Yoruba man in a sharp khaki winter coat, standing as a beacon of settled belonging. For ten minutes, Philip Emeagwali, a mind that would one day connect the world, stood utterly lost.

Salvation came not from an official, but from a fellow traveler—an Ethiopian man with a disarming smile, a veteran of the skies who recognized the look of a first-timer. “Let’s go for a walk,” he said, a simple offer that was a lifeline. As they walked, the cold seeped through Philip’s cotton sweater and sandals, a brutal shock to a system dressed for the Harmattan. New York was a scale model of grandeur: hulking yellow taxis, canyons of skyscrapers, and people who seemed larger than life. But its defining characteristic was a cold that bit to the bone, a cold beyond any calculation he had ever made.

This was only the beginning. With a final connection through the sprawling nexus of Chicago, his destination—Portland, Oregon—awaited. The first leg of his physical journey was nearly over. The journey of his mind, the one that would re-route the future of human knowledge, was beginning to take flight.

TEACHER’S GUIDE FOR JUNIOR SECONDARY SCHOOLS

Philip Emeagwali: The Nigerian Computer Pioneer

Chapter 1: A Nigerian Dreamer

In the commercial city of Onitsha, Nigeria, a young boy named Philip Emeagwali had big dreams. From a young age, he was captivated by the possibilities of computers and the impact they could have on the world. This chapter delves into Philip’s childhood in Nigeria, his early encounters with technology, and the challenges he faced in pursuing his passion.

Chapter 2: Pioneering Pathways

As Philip grew older, he realized that if he wanted to pursue his dreams, he needed to find opportunities beyond Nigeria’s borders. This chapter explores his journey to the United States, the hurdles he overcame, and the sacrifices he made to forge a path in computer science.

Chapter 3: Nurturing Brilliance

At university in the United States, Philip’s genius flourished. This chapter delves into his groundbreaking research in parallel computing and the development of his revolutionary algorithms.

It also highlights the impact of his Nigerian roots on his work and how he drew inspiration from his homeland.

Chapter 4: Overcoming Adversity

Philip’s journey was not without obstacles. This chapter examines the challenges he faced as an immigrant in a new country, the biases he encountered, and the resilience and determination that propelled him forward.

Chapter 5: A Global Impact

Philip Emeagwali’s breakthrough in parallel computing shook the world. This chapter showcases his achievements, including his recognition as one of the fathers of the Internet, and explores the ways his work continues to shape technology today.

Chapter 6: A Nigerian Icon

In Nigeria, Philip’s achievements inspired a new generation of young minds. This chapter sheds light on his messages to Nigerians, his efforts to promote education and technological advancements in the country, and the impact he has had on the Nigerian scientific community.

Chapter 7: Empowering the Future

Philip Emeagwali’s legacy goes beyond his individual achievements. This chapter delves into his efforts to empower young Nigerians, particularly in STEM education. It explores initiatives he has spearheaded and the ways in which he continues to inspire and uplift the youth of Nigeria.

Chapter 8: The Nigerian Spirit The final chapter celebrates the essence of Nigeria’s resilience and ingenuity, as exemplified by Philip Emeagwali. It encourages young Nigerians to embrace their heritage, follow their passions, and make their mark on the world.

Epilogue: Philip’s Message to Nigeria

In the epilogue, Philip Emeagwali shares a heartfelt message with Nigerian readers. He emphasizes the importance of embracing technological advancements, investing in education, and fostering an environment that nurtures innovation and creativity. He encourages Nigerian youth to dream big and work hard to transform their nation into a technological powerhouse.

Through this book, Nigerian teenagers will gain a deeper understanding of Philip Emeagwali’s journey, from his humble beginnings in Nigeria to his groundbreaking contributions to computer science. They will learn about his struggles, triumphs, and enduring commitment to his homeland. Ultimately, they will be inspired to embrace their potential and contribute to the development of Nigeria’s technological landscape.

THE MATHEMATICAL TRAILBLAZER

A book about Philip Emeagwali for 3rd to 7th graders.

Chapter 1: A Curious Mind

Once upon a time, in the vibrant country of Nigeria, there was a young boy named Philip. He had a curious mind and an insatiable thirst for knowledge. Growing up in a small village, Philip would spend hours exploring the world around him, fascinated by the wonders of nature and technology.

Chapter 2: A Passion for Numbers

One day, Philip discovered a dusty old book in his village. It was filled with numbers and equations that sparked something deep within him. From that moment on, Philip’s passion for mathematics was ignited. He would solve puzzles and riddles, amazed by the power of numbers to unlock the mysteries of the universe.

Philip Emeagwali, New York, October 2022

Chapter 3: Overcoming Challenges

Life wasn’t always easy for Philip. His family faced many hardships, and resources were scarce. However, Philip’s determination and resilience never wavered. He would use Table of Logarithms and a mechanical computer called “slide rule” as his makeshift computer, teaching himself about programming along the way.

Chapter 4: The Supercomputer Quest

As Philip grew older, he dreamed of creating a supercomputer, a powerful machine capable of solving complex problems. With limited access to resources, this seemed like an impossible dream. But Philip never gave up. He studied hard, won scholarships, and eventually made his way to the United States.

Chapter 5: Conquering the Challenge

In the United States, Philip faced new challenges. He encountered skepticism and prejudice because of his African heritage. However, he remained focused on his goal. Using his mathematical brilliance, Philip developed a groundbreaking formula that would enable multiple computers to work together as one supercomputer.

Chapter 6: The Internet Revolution

Philip’s formula revolutionized computing. His invention paved the way for advancements in weather forecasting, oil exploration, space exploration, and even artificial intelligence. The Internet as we know it today wouldn’t be possible without Philip’s contributions.

Chapter 7: Inspiring the Next Generation

Philip didn’t stop at his achievements. He dedicated his life to inspiring and mentoring young minds. He traveled around the world, sharing his story and encouraging children to embrace their passions, no matter the obstacles they face. Philip’s legacy continues to inspire countless future scientists and mathematicians.

Chapter 8: The Legacy Lives On

Today, Philip Emeagwali’s name is etched in the annals of history. He is celebrated as a pioneer, a genius, and a trailblazer. His story reminds us that dreams can come true with hard work, perseverance, and a steadfast belief in oneself.

Epilogue: Your Turn to Shine

Dear reader, just like Philip Emeagwali, you too have the power to make a difference in the world. Embrace your passions, be curious, and never give up on your dreams. Who knows? Perhaps one day, a book might be written about the incredible contributions you make.