Author: Milovan Janicijevic
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Feynman, QED, and Tesla’s Third Path: When Nature Is Neither Wave Nor Particle
Tesla detected signals where there should have been nothing. Something that even contemporary physics cannot yet decipher, although QED, Higgs, and Casimir have illuminated part of the mystery. To understand why the man who first stepped into the secrets of the vacuum was forgotten, and why his path remained far from the main highways of…
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Quantum Computers: From Qubits to Reality – Reflections on the Series and a Look Ahead
How we traveled from error correction to quantum consciousness through seven posts, and what lies around the corner 🧠⚛️🔮 This is the eighth and final part of our series on quantum computers.In the previous seven posts we traveled a long road: from error correction through physical implementations (superconductivity, ions, topological qubits) and logic gates, through quantum consciousness (Orch OR) to algorithms and practical…
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Quantum Computers: Quantum Supremacy and Algorithms – From Feynman’s Insight to Practical Applications
Why quantum computers don’t solve every problem, but those they do solve change the rules – Shor, Grover, VQE, and the future of quantum machine learning 🧠⚛️💻 This is the seventh part of our series on quantum computers.In the previous six parts we traveled a long road: from error correction through physical implementations (superconductivity, ions, topological qubits) and logic gates to…
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Quantum Computers: Is the Brain a Quantum Machine – Penrose’s Orch OR and the Mystery of Consciousness
How microtubules in our neurons might sustain quantum coherence in the hot, wet chaos of the brain – and why remembering dreams behaves like wavefunction collapse 🧠⚛️🌀 This is the sixth part of our series on quantum computers.In the previous five parts we journeyed from error correction through physical implementations (superconductivity, ions, topological qubits) to logic gates. We built a…
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Quantum Computers: Logic Gates – From NAND Gates to Rotations in Quantum Space
Why quantum operations must be reversible, how they are physically realized in superconductors, trapped ions, and topological systems, and why measurement is the only exception 🔄🌀🔧 This is the fifth part of our series on quantum computers.In previous parts we explored error correction (BB codes), physical reality (dilution refrigerators, superconductivity), topological qubits (Majorana), and trapped ions. Now we descend…
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Quantum Computers: Trapped Ions – How Laser Harps and Electric Wells Hold Quantum Machines Together
Why ions levitate above electrodes, how lasers write and read them, and why this approach is one of the oldest – and still one of the most promising 🧲🔦💡 This is the fourth part of our series on quantum computers.In the first part, we explored BB codes and how they reduce the hardware overhead of error correction.…
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Quantum Computers: Topological Qubits – Microsoft’s Leap into the Unknown
What are Majorana fermions, why did their creator mysteriously disappear, and how can chargeless quasiparticles save quantum computing? 🧩🌀💎 This is the third part of our series on quantum computers.In the first part, we explored how BB codes change the game in error correction. In the second, we descended into the physical reality – the cold of deep space,…
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Quantum Computers: Colder Than Space – What the Machine That Changes the World Actually Looks Like
Why a single quantum computer costs more than a luxury villa and is colder than deep space – and what hides behind the golden plates in those famous photographs ❄️💎🔬 This is the second part of our series on quantum computers.In the first part, we explored how error correction – especially the new BB codes – allows…
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Quantum Computers: From Lab to Reality – Why the New BB Code Is a Giant Leap Forward
How LDPC codes and bivariate bicycle codes emerged as the answer to quantum computing’s main obstacle – and why we’ll need far fewer qubits to correct errors 💡🔄💻 This is the beginning of a new series on MilovanInnovation – a journey into the world of quantum computers.Slowly, quantum computing is emerging from the fog and…
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Time as a Block, a Quantum Puzzle, and a Statistical Reality: Toward a New Picture of the Cosmos
How relativity, quantum mechanics, and observer theory shape our understanding of time – and why the future may already be here, we just can’t see it 🧊⚛️👁️ There is a growing consensus in leading scientific circles that spacetime should be viewed as a four-dimensional block in which the past, present, and future are equally real. This is not…