NONTECHNICAL SUMMARY This CAREER award supports theoretical research and education in the broad field of nonequilibrium quantum dynamics with a view towards emerging quantum technologies. Quantum computing is a new mode of computation that harnesses the principles of quantum mechanics to store and process information. Rapid experimental progress is ushering in an era of useful near-term quantum computing platforms, with potential applications ranging from cryptography to drug design. Quantum computation relies on controlling the nonequilibrium dynamics of systems of many interacting quantum particles. Comprehending such dynamics thus plays a critical role in enabling future advances. Many-particle quantum systems tend to lose information about the state in which they were prepared. This tendency, known as quantum ergodicity, is detrimental to quantum computation, which hinges on the ability to preserve delicate quantum states and perform operations on them. The research component of this project will develop a theoretical understanding of a variety of mechanisms through which quantum ergodicity can be avoided. It will also consider how to realize these mechanisms on present-day quantum hardware with the long-term goal of expanding the toolkit for the study and manipulation of complex quantum systems. Quantum science and technology has been identified as a key national research priority. Sustaining leadership in this field requires nurturing a robust quantum workfo