Quantum circuit diagram on a purple gradient background, showing qubit lines labeled D0, A0, and D1 with X and Z gates, measurement symbols, and a controlled operation

Explore quantum

Building the Modern Quantum Architecture, Part 5: Scalable quantum architecture

In Lecture 5 of Building the Modern Quantum Architecture, Dr. Matthias Troyer discusses the challenges that must be overcome to achieve utility-scale quantum computing. Managing the huge volume of measurements and control signals at scale may ultimately be a bigger challenge than manufacturing high-quality qubits.

 

 

More from the series

Explore more of the principles and possibilities of quantum computing—from architecture to applications.

Utility-scale quantum applications

Where is quantum computing heading—and what will it take to reach utility scale? Dr. Matthias Troyer charts the path from theory to transformative applications.

Bloch sphere diagram showing a qubit state with labeled basis states |0⟩, |1⟩, |+⟩, |−⟩, |+i⟩, and |−i⟩

Utility-scale quantum architecture

How do you build a utility-scale quantum computer? Join Dr. Matthias Troyer on a journey from high-level code to qubit control—and explore the architecture behind it.  

Illustration of a data center with stacked layers labeled Compute Hardware, Azure, Cloud Services, Developer Tools, and Hyperscale Workloads

High-performance quantum computing

Discover how quantum computing will draw on hard-won HPC insights to achieve speed, scalability, and performance for the next era of computing.

Dilution refrigerator used for quantum computing, positioned between server racks in a data center

Expand your quantum knowledge

Dive into these additional resources to continue your quantum journey.

Quantum for chemistry

Microsoft combines HPC, AI models, and quantum capabilities to achieve highly accurate chemical predictions.

Tools

Microsoft Quantum learning resources help prepare you for a quantum future. 

Education & resources

Resources to help you learn today's foundational quantum systems and tomorrow's scaled quantum supercomputers.