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description: Researchers at the University of Rochester are studying qudits, quantum systems that encode information across more than two energy levels instead of the usual...
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# Beyond Binary Quantum Computing: Exploring Higher-Dimensional Qudits

**[The Quantum Insider](https://daily.dev/sources/thequantuminsider)** · 9 min read · 0 upvotes · 0 comments

## Summary

Researchers at the University of Rochester are studying qudits, quantum systems that encode information across more than two energy levels instead of the usual qubit's binary states. Machiel Blok's group investigates whether these higher-dimensional systems can improve quantum simulation of chemistry and field theory problems and support more efficient quantum error correction. The team developed a new control method that drives multiple energy-level transitions simultaneously, rather than moving one level at a time. Their superconducting circuits run at millikelvin temperatures using a compact Bluefors dilution refrigerator system, which frees up lab space for additional experiments.

## Full article

daily.dev links to this article rather than hosting it. Read it at the original source: <https://thequantuminsider.com/2026/10/27/beyond-binary-quantum-computing-exploring-higher-dimensional-qudits>

## Questions this post answers

### What is a qudit and how is it different from a qubit?

A qudit is a quantum system that encodes information across more than two energy levels, unlike a qubit which uses only two. Researchers at the University of Rochester study superconducting qudits to access additional energy states beyond the standard two used in qubit-based architectures, aiming to better match hardware to naturally multi-level physical systems like atoms and molecules.

_Developers tracking the shift beyond binary computing follow qudit hardware progress on daily.dev._

### How did researchers improve control over multi-level qudit systems?

A Rochester research group developed a method that drives all energy-level transitions simultaneously instead of moving information one adjacent level at a time. Previously, controlling a qudit meant shifting between adjacent energy levels sequentially, which was inefficient; the new approach, inspired by spin physics concepts, enables much more efficient manipulation of complex quantum states.

_Engineers evaluating emerging quantum control techniques can follow qudit research updates on daily.dev._

### Why might qudits help with quantum simulation of chemistry and field theory?

Qudits may offer an advantage because many physical systems, like atoms, molecules, and quantum fields, are naturally multi-level rather than binary. Instead of forcing these systems into a two-state qubit representation, a qudit-based simulator could map its dimensionality directly to the problem, potentially solving quantum chemistry or quantum field theory problems more efficiently than classical computers.

_Those weighing qubit versus qudit approaches for simulation work can track the research on daily.dev._

## Similar posts on daily.dev

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---

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