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Building an Eternity Quantum Computing with Yb³⁺

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Welcome to a new frontier in quantum computing. We're proud to introduce a functional quantum processor design based on the BSM-SG theory (Basic Structures of Matter - Super Gravitational Model) and implemented with solid-state Yb³⁺ ion architecture. This project brings together deep theoretical insight with hardware-level realizations that anyone with the right tools can begin experimenting with.

Explore more at: Hackaday

What Makes BSM-SG Different?

Unlike the probabilistic clouds of the Standard Model, BSM-SG defines structured 3D helical arrangements of subatomic components, explaining particle spin, magnetic moments, and mass distribution with high precision. This theory gives us a roadmap for constructing stable quantum systems by aligning with the real structure of matter.

🔍 Application in Quantum Tech

  • Models nuclear behavior down to the proton-neutron-deuteron layout
  • Explains why certain nuclei (like Yb) are optimal for stable qubits
  • Predicts magnetic susceptibility transitions at structural reconfiguration points (see our visualization)

The Quantum Processor Based on Yb³⁺

Our quantum processor design uses a Yb³⁺-doped crystal lattice as the base for qubit encoding. The system utilizes:

  • Precise laser excitation to control quantum transitions (1030 nm)
  • Microwave signal generator to drive spin flips (~10 GHz)
  • A uniform magnetic field (~100 Gauss) to stabilize qubit states
  • Cryogenic and thermal stabilization for coherence retention
  • Photodiode readout (1000–1100 nm range) for optical measurement of quantum state collapse

The hardware is controlled by a custom FPGA system and interfaced with Qiskit through a USB DAQ, forming a complete hybrid quantum-classical stack ready for experimentation.

The Quantum Neural Architecture (QNN)

We've implemented a 16-qubit prototype simulated in Qiskit and mapped to real hardware components:

⚛️ Core Components

  • Qubits: Yb³⁺ ions in crystal lattices
  • Laser Pump: 1030 nm IR laser diode for energy state control
  • Microwave Generator: ~10 GHz for spin transitions
  • Optical Detector: InGaAs photodiode (1000–1100 nm)
  • Magnetic Field: ~100 Gauss to stabilize spin orientations
  • FPGA + USB DAQ: For pulse synchronization and readout into Qiskit

Magnetic Susceptibility & Nuclear Structure

We propose an experimental setup that correlates magnetic susceptibility transitions (positive to negative) with BSM-predicted nuclear reconfiguration points:

View full explanation...

Call to the Hackaday Community

We’re building an open-source movement around quantum technology grounded in real nuclear structure. We invite physicists, engineers, and hackers to:

  • Replicate the experiments
  • Discuss the hardware modules (FPGA, optics, firmware)
  • Simulate and improve the neural layers in Qiskit

This is our chance to shape a practical and transparent quantum architecture.

Let’s build the future together, one ion at a time.