IONQ QUANTUM AI

Latest Research by IonQ

Explore IonQ's latest work in trapped-ion quantum computing, fault-tolerant architectures, quantum error correction, quantum algorithms and application-focused research.

TRAPPED-ION QUANTUM COMPUTINGFAULT TOLERANCEQUANTUM ERROR CORRECTIONQUANTUM ALGORITHMSQUANTUM APPLICATIONS

FEATURED RESEARCH

IonQ Research Highlights

IonQ Fault-Tolerant Quantum Computing with Trapped Ions: The Walking Cat Architecture
APR 2026 IONQ

Fault-Tolerant Quantum Computing with Trapped Ions: The Walking Cat Architecture

A fault-tolerant architecture for trapped-ion quantum computing that explores how logical qubits and error correction can be organized into a scalable quantum computing system.

FAULT TOLERANCE TRAPPED IONS QUANTUM ARCHITECTURE
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IonQ Quantum Parity Representations for Classical Machine Learning
MAY 2026 IONQ

Quantum Parity Representations for Classical Machine Learning

A framework for discovering learnable parity representations and recovering encoders that transform classical machine-learning data into useful quantum representations.

QUANTUM MACHINE LEARNING PARITY REPRESENTATIONS QUANTUM ENCODING
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IonQ Practical Quantum Topological Data Analysis
JUL 2026 IONQ

Practical Quantum Topological Data Analysis

Research into practical quantum topological data analysis for extracting high-dimensional structure and analyzing complex time-series data using quantum computing techniques.

TOPOLOGICAL DATA ANALYSIS QUANTUM MACHINE LEARNING DATA SCIENCE
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IonQ Protein Folding on a 64-Qubit Trapped-Ion Hardware
APR 2026 IONQ

Protein Folding on a 64-Qubit Trapped-Ion Hardware

An experimental study of protein-folding optimization using counterdiabatic quantum optimization on a 64-qubit trapped-ion quantum processor.

QUANTUM CHEMISTRY PROTEIN FOLDING TRAPPED IONS
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IonQ Quantum-Classical Hybrid Framework for Optimal Energy Storage Systems Planning
JUL 2026 IONQ

A Quantum-Classical Hybrid Framework for Optimal Energy Storage Systems Planning

A hybrid quantum-classical optimization framework for planning energy storage systems, combining quantum computing techniques with classical optimization methods.

QUANTUM OPTIMIZATION ENERGY STORAGE HYBRID COMPUTING
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IonQ Quantum Lattice Boltzmann Solutions for Transport under 3D Spatially Varying Advection on Trapped-Ion Hardware
APR 2026 IONQ

Quantum Lattice Boltzmann Solutions for Transport under 3D Spatially Varying Advection on Trapped-Ion Hardware

Research applying quantum lattice Boltzmann methods to transport problems with three-dimensional spatially varying advection, demonstrated on trapped-ion quantum hardware.

QUANTUM SIMULATION LATTICE BOLTZMANN TRAPPED-ION HARDWARE
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Explore All IonQ Research

Browse the complete collection of IonQ's quantum research, papers and breakthroughs.

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