Quantum-Clarity: QuantaCore™ World-Record Quantum Platform
🏆 World Record: 116-Qubit Validation | January 2026

QuantaCore™
Hardware-Native Topological Resources:
Measurement-Based Quantum Advantage

Making NISQ devices ready for practical quantum computing through modular architecture and operator-aligned basis migration

Unlocking superior quantum computing performance through Z-orthogonal stabilizer states and GPU-accelerated MBQC protocols

116
Qubits
Validated
85.7%
Avg Fidelity
No Mitigation
97%
Peak Y⊗Z
Correlation
29
OrthoTiles™
Modules
⚛️ Z-Orthogonal Protection: 95.3% orthogonality provides passive noise immunity without active error correction
🧠 GPU-Accelerated Development: Rapid protocol validation framework enabling 10-100× faster iteration
⚡ Scalable Architecture: Linear scaling bypassing gate errors for near-term quantum advantage
🔷 Modular Independence: Only 0.9% fidelity degradation over 10× scale increase proves pathway to 1000+ qubits
🎯 MBQC Advantage: Measurement-based protocols achieve superior process fidelity vs gate-based approaches
🚀 Multi-Platform Ready: Validated on IBM Quantum with roadmap for Rigetti, IonQ, and neutral atom systems
QuantaCore™ - Modular Quantum Computing Platform

QuantaCore™ Platform

Operator-Aligned Quantum Resources for Scalable MBQC

World-record modular quantum computing through Basis Migration technology

🏆 World Record: 116-Qubit Validation on IBM Quantum

116
Qubits Validated
(29 OrthoTiles™)
85.7%
Average Fidelity
No Error Mitigation
97%
Peak Y⊗Z Correlation
World-Class Performance
96.6%
Module Success Rate
28/29 Deployed

Validated January 2026 on IBM ibm_fez (156-qubit Heron R2) | 9.7× larger than previous MBQC demonstrations

Linear Scaling Demonstrated

3 Modules (12 Qubits)
86.6%
Initial Validation
→
10× Scale Increase
29 Modules (116 Qubits)
85.7%
World Record

Only 0.9% fidelity degradation over 10× scale increase — demonstrating robust modular independence and pathway to 1000+ qubits

Technology Stack

⚛️

Basis Migration Engine

Patent-pending deterministic circuit that relocates quantum information from the computational (Z) basis into symmetry-protected Y⊗Z orthogonal manifolds, creating independent error channels.

Key Innovation: Hardware-native topology optimization for superconducting processors
🔷

OrthoTiles™ Modules

Independent 4-qubit building blocks with isolated error channels. Each module operates in its own error space, preventing cascading failures across the system. Prepared in parallel for efficient scaling.

Modularity: Deploy 100+ qubits without exponential resource overhead
📊

EigenSpectrum™ Analyzer

Real-time verification framework producing operator-level manifold integrity metrics. Enables instant accept/reject decisions without exponentially costly quantum state tomography.

Efficiency: O(n) verification vs O(2n) full tomography
🛡️

Y⊗Z Orthogonal Protection Mechanism

Information encoded in the Y⊗Z manifold is orthogonal to Z-basis noise (dominant error channel on NISQ hardware). Mathematical orthogonality Y·Z = 0 creates independent error channels: Z-dephasing doesn't corrupt Y⊗Z correlations.

Measured 95.3% Z-orthogonality success (⟨Z⟩ ≈ 0) confirms information successfully migrated out of computational basis.

Physical Principle:

Traditional quantum computing encodes information along Z-axis (north-south pole of Bloch sphere). Z-noise directly corrupts this encoding.

Y⊗Z approach: Information resides perpendicular to Z-axis, in the equatorial Y⊗Z plane. Z-noise rotates around Z-axis but doesn't project onto orthogonal Y⊗Z subspace — first-order immunity to dominant error channel!

🔬 Breakthrough Discovery: [[4,0,d]] Stabilizer State

Our research discovered that 4-qubit modules prepared via basis migration occupy a unique eigenspace characterized by 16 independent stabilizers with perfect Y⊗Z correlations and Z-orthogonality.

This creates a [[4,0,d]] resource state (4 physical qubits, 0 logical qubits encoded, distance d protection) optimized specifically for measurement-based quantum computing rather than direct information storage.

Measurement-Based Quantum Computing Applications

🧬

Quantum Chemistry

FeMoco nitrogen fixation simulations using modular MBQC protocols. Target: 400-1000 qubits via 100-250 OrthoTiles™

🔄

VQE & QAOA

Variational algorithms via measurement-based execution, bypassing cumulative gate errors through modular resource consumption

📡

Quantum Teleportation

High-fidelity quantum state transfer using OrthoTiles™ as entanglement channels with Z-orthogonal protection

🌐

Quantum Internet

Distributed Y⊗Z entanglement for multi-party quantum computation and quantum key distribution protocols

Multi-Platform Hardware Compatibility

✅
IBM Quantum
Validated on Heron R2
(156-qubit processor)
🔄
Rigetti
Superconducting
(Beta Q2 2026)
📋
IonQ
Trapped Ions
(Planned Q3 2026)
📋
QuEra
Neutral Atoms
(Roadmap 2027)

A New Paradigm for Scalable Quantum Computing

QuantaCore™ demonstrates a practical pathway to quantum advantage through operator-aligned modular architecture. With world-record 116-qubit validation and linear scaling properties, our platform enables measurement-based quantum computing at scales previously thought impossible on NISQ hardware.

From sequential gate operations to parallel modular preparation.
From exponential error accumulation to isolated error channels.
From fragile global states to robust independent modules.

Patent Pending (U.S. Provisional Filed January 2026) | QuantaCore™, OrthoTiles™, and EigenSpectrum™ are trademarks of Quantum-Clarity LLC

Hardware Platform Scale Achieved Fidelity/Performance Status
🏆 IBM Quantum (ibm_fez)
Heron R2 Processor (156 qubits) 		116 qubits
(29 OrthoTiles™) 		85.7% avg fidelity
97% peak correlation
96.6% success rate 		✅ VALIDATED
January 2026
World Record
GPU-Accelerated Simulation & Development Platform
Consumer GPU (RTX 3060)
Development & Validation Platform 		12 qubits exact
16+ sampling 		~2 min protocol validation
Full statevector 		✅ Production
RTX 4090
High-Performance Development 		16 qubits exact
20+ sampling 		~20-30 sec
4-6× speedup 		Projected
RTX 5090
Next-Gen Platform 		20 qubits exact
24+ sampling 		~12-18 sec
6-10× speedup 		Projected
NVIDIA A100
Enterprise Development 		24 qubits exact
28+ sampling 		~8-12 sec
10-15× speedup 		Projected
NVIDIA H100
Advanced R&D Platform 		28+ qubits exact
32+ sampling 		~4-6 sec
25-30× speedup 		Projected

🏆 World Record: 116-Qubit Modular Quantum Computing

Platform: IBM ibm_fez (156-qubit Heron R2 processor)
Achievement: 29 independent OrthoTiles™ modules (116 qubits total)
Performance: 85.7% Âą 5.0% average fidelity (no error mitigation)
Peak Correlation: 97.02% Y⊗Z correlation (Module 26)
Success Rate: 96.6% (28 of 29 modules deployed)
Scaling: Only 0.9% fidelity degradation over 10× scale increase
Date: January 2, 2026 | Status: Patent Pending (USPTO)

✅ QuantaCore™ Platform: Validated Results

Hardware Validation:
  • 116 qubits on IBM Quantum (world record)
  • 29 independent OrthoTiles™ modules
  • 85.7% average manifold integrity
  • 97% peak Y⊗Z correlation achieved
Orthogonal Protection:
  • 95.3% Z-orthogonality success
  • 89.1% average Y⊗Z correlation
  • First-order noise immunity confirmed
  • Independent error channel isolation
Scaling Demonstrated:
  • Linear scaling to 116 qubits
  • Only 0.9% degradation over 10× scale
  • Modular independence verified
  • Pathway to 1000+ qubits established

🚀 GPU-Accelerated Development Platform

Simulation Capabilities:
  • 12-qubit exact statevector (validated)
  • 16+ qubit sampling methods
  • ~2 minute protocol validation time
  • 10-100× speedup vs CPU-only
Development Workflow:
  • Rapid circuit design iteration
  • GPU-optimized stabilizer sampling
  • Batch processing for efficiency
  • Hardware-aware optimization
Validation Bridge:
  • GPU simulation → IBM QPU validation
  • Module pre-screening before deployment
  • Quality prediction algorithms
  • Cost-effective protocol development

🔬 Technical Implementation

QuantaCore™ Platform (Hardware):
• IBM Quantum processors (Heron R2, 156 qubits)
• Qiskit 1.0+ with EstimatorV2 for hardware execution
• Topology-optimized qubit layouts for modular preparation
• Real-time EigenSpectrum™ verification (O(n) efficiency)

GPU Development Platform (Simulation):
• Framework: Qiskit + CuPy GPU acceleration + Python 3.11
• Methods: Exact statevector (≤12q), sampling-based (>12q)
• Optimization: GPU memory management, smart stabilizer sampling
• Resource states: 4-qubit Y⊗Z modules, scalable to N×4 qubits

📈 Platform Roadmap

✅ Q1 2026 (Current): 116-qubit validation complete, world record established
→ Q2 2026: 200+ qubit demonstration, Rigetti/IonQ platform compatibility
→ Q3-Q4 2026: 500-qubit modular systems, first commercial partnerships
→ 2027+: 1000+ qubit systems, fault-tolerant integration, production deployment

💡 What Makes QuantaCore™ Unique

🔷 Modular Architecture

Independent OrthoTiles™ prevent cascading failures. When one module fails, others remain unaffected.

⚛️ Basis Migration

Patent-pending technology relocates quantum information to orthogonal manifolds for noise protection.

📊 Real-Time Verification

EigenSpectrum™ Analyzer provides O(n) verification vs O(2^n) tomography, enabling instant quality assessment.

📈 Linear Scaling

Only 0.9% fidelity degradation over 10× scale increase proves pathway to 1000+ qubits.

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