Home | Advancing Quantum Computation Beyond Gate-Model (BGM)

Welcome to the 1st workshop on Advancing Quantum Computation Beyond Gate-Model (BGM2024)!

October 7 - 9, 2024 at the University of Maryland, College Park

The recordings of workshop talks can be found on the YouTube QuICS Channel.

There have traditionally been two fundamental approaches to processing information. Analog computing involves processing data in a continuous form, typically utilizing smoothly varying physical quantities. This approach is characterized by relatively low implementation overheads and has proven effective in applications such as real-time signal processing, control systems, and simulations. However, analog computers are prone to noise and drift, which can limit their accuracy over time.

Conversely, digital computing relies on discrete values, usually in binary form, to represent and process data. This mathematically elegant abstraction facilitates the design of large-scale computers that are generally more precise and versatile, though at the expense of substantial computing resources. The modern digital era has been significantly influenced by Moore’s Law, which, however, may be reaching its limits. Current computing devices are increasingly consuming more energy than is sustainable. As we look to the future, we observe that highly intelligent and energy-efficient computing systems, such as the human brain, remain incompletely understood.

Inspired by the historical evolution of analog and digital computing, this workshop aims to foster discussions on potential pathways for implementing end-to-end real-world quantum applications. The focus will be on exploring alternatives to the purely gate-based computing model and leveraging the hardware-native programmability of near-term quantum devices.

We hope this workshop will encourage a systematic investigation into the optimal combinations of application domains, suitable computing paradigms, novel quantum algorithms, and desired quantum computing capabilities for practical applications. This is intended to be pursued well before the realization of fully fault-tolerant quantum computers.

To achieve this, we have invited speakers to present innovative approaches for controlling and operating quantum devices beyond the gate model, as well as to explore the synergy between analog and digital paradigms to inspire new quantum applications. We anticipate that this workshop will also stimulate dialogue among theoretical and experimental physicists, mathematicians, computer scientists, and domain experts within this highly interdisciplinary field.

We have reached the capacity and the registration is closed now.

A list of accepted posters is in the Poster Page.

Have any question about the workshop? Please contact the organizers.

Speakers

Daniel Lidar University of Southern California	Jason Petta University of California, Los Angeles	Christopher Monroe Duke University
Edward Farhi Massachusetts Institute of Technology	Edwin Barnes Virginia Tech	Carleton Coffrin Los Alamos National Laboratory
Hakan Türeci Princeton University	Alexey Gorshkov National Institute of Standards and Technology University of Maryland, College Park	Massachusetts Institute of Technology
Yuan Liu North Carolina State University	Quntao Zhuang University of Southern California	Tirthak Patel Rice University
Vahagn Mkhitaryan Purdue University	Trond Andersen Google Quantum AI	Hossein Sadeghi Pasqal
Sheng-Tao Wang QuEra Computing	William Kindel IQM Quantum Computers	David Hayes Quantinuum
Péter Kómár Amazon Braket	Jiaqi Leng University of California at Berkeley	Junyi Liu University of Maryland, College Park
Tom Manovitz Harvard University	Yulong Dong University of California, Santa Barbara	Ravi Naik Lawrence Berkeley National Laboratory