Updates on the campus response to coronavirus (COVID-19)

Center for Signal and Information Processing Seminar

Event Details

Friday, October 15, 2021

3:00pm - 4:00pm


For More Information


Ghassan AlRegib


Raquel Plaskett


Jeanetta Clinton


Center for Signal and Information Processing 

School of Electrical and Computer Engineering

Event Details

Date: Friday, Oct. 15, 2021

Time: 3:00pm

Bluejeans linkhttps://bluejeans.com/4658604304

Speaker: Jun Qi

Affiliation: Georgia Tech, School of Electrical and Computer Engineering

Seminar Title: Quantum Tensor Networks for Machine Learning and Signal Processing

Bio: Jun Qi is currently a Ph.D. candidate in the School of ECE at Georgia Tech. He worked in Deep Learning Technology Center at Microsoft Research (2017), Tencent AI Lab (2019), and Mitsubishi Electric Research Laboratory (2020).

Abstract: The state-of-the-art machine learning (ML), particularly based on deep neural networks (DNN), has enabled a wide spectrum of successful applications ranging from the everyday deployment of speech recognition and computer vision to the frontier of scientific research in synthetic biology. Despite rapid theoretical and empirical progress in DNN based regression and classification, DNN training algorithms are computationally expensive for many new scientific applications, which requires computational resources even beyond the computational limits of classical hardware. The imminent advent of quantum computing devices opens up new possibilities of exploiting quantum machine learning (QML) to improve the computational efficiency of ML algorithms in new domains. With rapid development in quantum, hardware has motivated advances in QML to run in noisy intermediate-scale quantum (NISQ) devices, we employ hybrid quantum-classical models that rely on the optimization of parametric quantum circuits, which are resilient to quantum noise errors and admit many practical QML implementations on NISQ devices. In particular, we propose a novel end-to-end training pipeline consisting of the quantum tensor network (QTN) for the generation of quantum embedding and parametric quantum circuit (PQC) for model training. Our experiments on the tasks of image classification and speech recognition have been conducted to highlight the advantages of QTN-PQC.

Last revised October 6, 2021