By Raghu Kulkarni, CEO, IDrive Inc.
I am not a professional physicist. My day job is running IDrive, where I deal with the realities of data storage, system architecture, and optimization. But any engineer who builds large-scale systems eventually asks the ultimate architectural question: What is the source code of the universe?
We tend to think of the universe as a collection of random constants—arbitrary numbers like the mass of a proton or the speed of light that just “are.” But in my world, arbitrary numbers usually mean unoptimized code. If a system works, there is a logic behind it.
Over the last few weeks, I embarked on a journey of thought experiments to see if the universe could be debugged. I started with the origin of space itself and ended up deriving the mass of the Higgs Boson.
Here is the story of that journey, paper by paper.
The Kernel: How It All Began
My first question wasn’t about particles; it was about the empty space they sit in. How did the “system” initialize?
In my first paper, The Selection-Stitch Model: Space-Time Emergence, I proposed that the Big Bang wasn’t an explosion of matter, but an initialization of geometry. I modeled the vacuum as a “woven” network—a simplicial complex—where space-time volume (V) emerges from quantum information (S).
I found that the universe scales according to a specific power law (V ∝ S¹.⁵), suggesting that space itself is a “geometric payout” of processing information. This was the “Kernel” of the operating system: a vacuum that isn’t empty, but computational.
Final Thoughts
This series of papers is a testament to the power of first-principles thinking. By treating the universe as a system with a defined architecture—rather than a collection of random measurements—the complex hierarchy of particle physics resolves itself into simple, elegant integers.
It turns out, the source code of the universe might be cleaner than we thought.
