# AMD Partners with PsiQuantum to Advance Hybrid Quantum Computing Infrastructure

AMD invests in PsiQuantum to integrate quantum, AI, and high-performance computing technologies.

- **Source:** [The Next Web](https://brifing.si/source/afe24b20-b275-4c19-b9a6-8bb3c8babae7)
- **Published:** 2026-11-12
- **Topic:** [technology](https://brifing.si/c/technology)
- **Original article:** <https://thenextweb.com/news/psiquantum-amd-partnership-equity-investment-quantum>
- **On Brifing:** https://brifing.si/s/da905a58-0be0-4092-a06d-21bf3d170eb9

## AMD and PsiQuantum Partnership

AMD announced a strategic investment in PsiQuantum on November 12 to advance hybrid quantum computing infrastructure. While the specific financial terms of this investment remain undisclosed, the collaboration aims to integrate advanced hardware components. This partnership builds upon existing efforts to develop fault-tolerant quantum systems using specialized silicon photonics technology.

## Hardware Integration Strategy

PsiQuantum currently utilizes AMD Versal FPGAs for its quantum development. The expanded agreement incorporates AMD Instinct GPUs, EPYC CPUs, and the ROCm software stack into the architecture. By combining these classical computing resources with PsiQuantum’s light-based silicon photonics, the companies intend to create a highly efficient, scalable hybrid computing fabric.

## Hybrid Software Development

The companies are co-designing infrastructure that merges quantum, high-performance computing, and artificial intelligence. This hybrid software approach aims to solve complex problems previously considered unreachable. By integrating these distinct computational paradigms, they expect to establish a powerful framework capable of handling massive data processing tasks across various scientific research domains.

## Real-time Error Correction

Researchers have successfully tuned PRISM, a machine-learning decoder, to operate on programmable chips. This mechanism is designed to correct errors in real time within large photonic quantum computers. By linking this decoder to AMD hardware, the team ensures faster processing speeds, which is a critical requirement for maintaining stability in quantum systems.

## Drug Discovery Focus

The initial application of this partnership targets drug discovery, specifically simulating covalent inhibitors relevant to cancer research. PsiQuantum currently executes its chemistry methods on AMD GPUs to achieve these results. This focus aligns with the US Department of Energy’s Quantum Genesis list, which identifies key scientific challenges suitable for quantum computing solutions.

## Chicago Facility Collaboration

PsiQuantum serves as the anchor tenant at the Illinois Quantum and Microelectronics Park located in Chicago. Both companies plan to explore collaborative opportunities at this facility. Further details regarding their joint progress and technical milestones are expected to be shared during the SC26 supercomputing conference, scheduled for November 15 to 20.

## Broader Financial Context

The partnership occurs amidst significant financial activity for both firms. In October, the Pentagon offered PsiQuantum a conditional loan of 150 million dollars. Simultaneously, AMD recently committed to a 1 billion dollar investment in Meta and reported a record-breaking financial quarter, demonstrating strong capital availability for their ongoing strategic technological expansion.

## Future Computing Implications

This collaboration highlights the necessity of classical computing leadership in scaling quantum systems. By bridging the gap between current high-performance architectures and emerging quantum technologies, AMD and PsiQuantum are positioning themselves to lead in fields like energy and finance. The success of this integration will likely define future benchmarks for hybrid computational power.

## Sources covering this story

- https://thenextweb.com/news/psiquantum-amd-partnership-equity-investment-quantum — 

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_Summary written by Brifing from the original reporting. Copyright in the original article belongs to its publisher; read the full piece at the link above._
