Horizon Quantum (HQ) investor relations material

Market and technology overview

• Quantum computing progress has shifted from academia to industry, with most frontier systems now developed by private companies.

• Current quantum computers have improved error rates but still require significant advances in both hardware and software to reach practical utility.

• The company focuses on bridging the gap between quantum hardware and useful applications by reinventing decades of computer science for the quantum era.

• Software development includes building programming languages, compilers, and runtime environments tailored for quantum systems.

• The approach aims to make quantum computing accessible to non-experts by abstracting quantum complexity through layered programming languages.

Product and platform strategy

• The software stack is hardware-agnostic, supporting integration with multiple quantum hardware providers and enabling advanced features like loops and recursion.

• On-premises testbeds, such as Ember One (superconducting) and an upcoming IonQ trapped ion system, allow for deep integration and reduced latency compared to cloud-only access.

• The Beryllium programming language enables developers to write object-oriented quantum code, facilitating broader adoption and abstraction of quantum mechanics.

• The company is developing system software akin to operating systems, providing low-level services like dynamic memory allocation and I/O for quantum computers.

• Collaboration with Quantum Machines addresses embedded calibration, aiming to minimize downtime and improve operational efficiency for quantum hardware.

Application domains and market potential

• The vision is to expand quantum computing's addressable market beyond traditional domains (optimization, simulation, machine learning, cryptography) to a wider range of industries.

• The software approach seeks to automatically accelerate general code, making quantum speed-ups available for conventional applications.

• Inbound interest is already seen from sectors like oil and gas, indicating broader applicability.

• The upcoming 256-qubit IonQ system is expected to approach the threshold for quantum advantage in chemistry and other complex problems.

• Different hardware modalities (superconducting, trapped ion, neutral atom) offer unique trade-offs in speed, accuracy, and suitability for various problem types.