The Investment Case for Delta Gold Technologies
The opportunity in quantum computing
McKinsey estimates quantum computing could create US$1.3–2.7 trillion of economic value across industries by 2035 — chemicals, financial services, logistics and pharmaceuticals leading. The industry passed US$1 billion of revenue in 2025 (projected up to US$4.4 billion by 2028), start-up investment reached US$12.6 billion in 2025 — 6.3× the prior year — and the UK has committed £2.5 billion over ten years to its National Quantum Strategy.
The problem the industry hasn't solved
Every qubit platform trades stability against scalability. Superconducting circuits scale readily, but their qubits hold coherence for only microseconds — too briefly for sustained, accurate computation without heavy error correction; trapped ions hold their state for minutes, but each sits in complex trapping apparatus and must be addressed one ion at a time, so systems remain at tens of qubits. No platform yet delivers both — and both are, at root, properties of the qubit's material.
And the flagship prizes — computers that could one day break today's encryption or design molecules for new drugs and materials — will demand machines of millions of qubits that hold their state and work in concert. That is stability and scalability, delivered together.
Our approach and why it could matter
Delta positions gold, engineered at the nano-scale, as a distinct new modality — not a tweak to existing platforms. Two routes of equal weight in one material: gold arranged in engineered layers for circuits, with coherence engineered by topology (electrical), and precision clusters for spin and light, with coherence engineered by chemistry (optical).
The thesis: gold may combine the intrinsic stability of atoms with the manufacturability of a bulk material, because the useful properties are engineered into every cluster or layer rather than left to chance. Delta's research is targeting the material groundwork from which stable, scalable qubits could one day be built.
The university partnerships behind the IP
Two independent, equally weighted programmes: the University of Toronto (3-year agreement, Prof. Harry Ruda, electrical route) and Penn State (6-year agreement, Prof. Kenneth Knappenberger, optical route) — increasingly collaborative, with Delta at the centre holding exclusive global licences. Research at both is reported ahead of schedule.
The research projects →How the licensing model generates revenue
Delta licenses IP to industry — chip makers, hardware manufacturers, data centres, sensing and network vendors — and retains 98.5% of Toronto-licensed and 99–100% of Penn State-licensed sales. Quantum IP commands real value early: IonQ acquired Oxford Ionics for ~US$1.1 billion in 2025.
Milestones and what comes next
Value-recognition events are designed to arrive before a finished device: patents through examination and further filings in 2027; working prototypes; first licensees, with licensing and monetisation targeted from 2028. Quantum sensors are the first planned product on both routes — the nearest-term commercial lane.
- Seed EIS/SEIS financing (£643,000), HMRC approval
- University of Toronto research sponsorship signed
- Penn State research sponsorship signed
- IPO on the Aquis Growth Market (DGQ)
- Frankfurt Stock Exchange listing (O2J)
- U of T provisional patent filed
- Penn State: three full patent applications
- Expansion of university agreements
- Further patents targeted and filed; key IP end users signed
- Licence IP — monetisation target
Risks and current stage
Delta is an early-stage company. Its programmes are at the research stage. Patent applications are pending, not granted.
Nothing on this page is investment advice.