A research framework for analysing decoherence effects in quantum systems, exploring how to enable more stable computations and extend coherence times. Currently in active modelling phase.
The Problem
Quantum decoherence, the loss of quantum coherence, remains the primary obstacle preventing practical quantum computers from achieving their full potential. Current systems lose quantum information within microseconds.
Materials scientists struggle to predict which quantum materials will maintain coherence long enough for meaningful computation. Traditional analysis methods are too slow and imprecise for the rapid innovation quantum computing demands.
The field needs tools that can analyse decoherence mechanisms at the quantum level, predict material behaviour, and guide the development of more stable quantum systems.
Our Approach
We apply our foundational approach of physics-based modelling and mathematical analysis to the quantum decoherence problem. Every prediction is grounded in quantum mechanics, not curve fitting.
Physics simulations that model decoherence mechanisms at the quantum level from first principles
Predict how materials behave in quantum conditions before physical testing
Model temperature, electromagnetic, and vibrational effects on coherence
Model driven recommendations grounded in quantum mechanics, not black box outputs
Where We Are
The Quantum Decoherence Analyser is in active modelling phase. Here is what our simulations have shown so far.
Target Platforms
Our framework is designed to be platform agnostic, with potential applications across major quantum computing architectures.
Transmon and fluxonium architectures used by major quantum hardware companies
Ion trap systems known for high fidelity quantum operations
Emerging platform with inherent decoherence resistance properties
Optical quantum computing architectures operating at room temperature
Whether you're exploring risk analytics for your organisation or interested in our research, we're always open to a conversation.
