Connecting the Michigan Tech Computing Community

The ICC invites Michigan Tech faculty to share their research with the computing community in the ICC Seminar Series.

Upcoming Lectures

Zhuo Feng
March 17, 2017

Associate Professor, Electrical and Computer Engineering

Zhuo Feng received a PhD in Computer Engineering from Texas A&M University in 2009, an ME degree in Electrical Engineering from the National University of Singapore in 2005, and a BE in Information Engineering from Xi’an Jiaotong University, in China, in 2003. He is currently an assistant professor in the Department of Electrical and Computer Engineering at Michigan Tech, where he is affiliated with the computer engineering group. His research interests include VLSI designs, computer-aided design, parallel heterogeneous computing algorithms, nonlinear IC simulations in time/freqeuncy domain, on-chip interconnect modeling, parasitics extraction and reduction, full-chip thermal/electrical simulations and optimizations for 3D-ICs, die-package power delivery network (PDN) modeling and optimization for multi-core processor design, variation-aware VLSI circuit modeling/optimization and statistical static timing analysis (SSTA).

Present-day nanoscale Integrated Circuit (IC) technologies allow to integrate billions of transistors into a single chip, while almost every key subsystem of modern chip designs, such as clock distribution networks, power delivery networks (PDNs), embedded memory arrays, as well as analog and mixed-signal systems, may reach an unprecedented complexity of hundreds of millions of components. As a result, it becomes extremely difficult and even intractable to model, simulate, optimize and verify future nanoscale ICs at large scale with existing design methodologies. On the other hand, recent research results (a.k.a. Laplacian Paradigm) from theoretical computer science and applied math communities show that it is possible to construct almost-linear-sized subgraphs (graph sparsifiers) that can very well approximate the spectra of the original graph via spectral graph sparsification, which can immediately lead to the development of much faster numerical and graph-based algorithms. For instances, spectrally sparsified transportation networks will allow to develop much faster navigation algorithms in large transportation systems, spectrally sparsified data networks can allow to more economically store, partition and cluster data networks, spectrally sparsified circuit networks will allow to more efficiently simulate, optimize and verify large circuit systems. However, there still remain extremely challenging issues for designing practically efficient spectral sparsification algorithms for handling large scale real world graphs (networks).

In this talk, I will first introduce our recent work on developing a practically efficient, nearly-linear complexity spectral graph sparsification approach for aggressively sparsifying large graph Laplacian matrices, integrated circuits, and as well as data networks. Next, I will talk about how to leverage the latest result for developing nearly-linear time numerical and graph-based algorithms for solving large partial differential equation (PDE) and sparse matrix problems, design automation of future nanoscale ICs, as well as graph partitioning and data clustering of large data networks. Lastly, I will discuss how to leverage graph sparsification techniques for optimally solving large PDEs and sparse matrices on emerging heterogeneous parallel computing platforms.

Hairong Wei
March 31, 2017

Associate Professor, School of Forest Resources and Environmental Science
Department of Computer Science (Adjunct)
Department of Mathematics (Adjunct)

Hairong Wei is exploring the possibility of identifying genes regulating biological traits via systems biology approaches. He achieves this goal through combinatorial approaches: (1) Designing very efficient biological experiments to yield information-enriched gene expression data sets. (2) Performing gene reduction to identify major regulators controlling traits via complex data analysis. (3) Construction of local regulatory networks controlling a trait. He has developed the algorithms and software pipelines for accurately identifying transcription factors controlling a trait with 50-100 % accuracy. He is generally interested in identifying genes regulating the following traits: (1) Wood productivity and quality. (2) Resistance to disease and pest. (3) Biomass production. However, identification of genes regulating any of agriculturally important traits interests him.

Zhaohui Wang
April 6, 2017

Assistant Professor, Electrical and Computer Engineering


  • PhD, Electrical and Computer Engineering, University of Connecticut
  • M.Sc., Signal and Information Processing, Graduate University, Chinese Academy of Sciences
  • B.Sc., Electronic Information Science and Technology, Beijing University of Chemical Technology


  • Outstanding Reviewer of 2016 by the Editorial Board of IEEE Journal of Oceanic Engineering
  • Outstanding Reviewer of IEEE Journal of Oceanic Engineering (2015)
  • Outstanding Service Award, the Tenth ACM International Conference on Underwater Networks and Systems (WUWNet), 2015
  • Outstanding Reviewer of IEEE Journal of Oceanic Engineering (2013 — 2014)

Lecture Archive, Fall ’16

Tim Wilkin
November 17, 2016

Deakin University
Senior Lecturer and Computer Science Course Director, School of Information Technology​​​​​​​

Tim Wilkin received the B.Sc. (Hons) degree in applied mathematics from Monash University in 1997, the Grad. Cert. in Higher Education from Deakin University in 2011 and the Ph.D. degree in mathematics and computer science from Deakin University in 2014. He is currently a Senior Lecturer and Director of the computer science program within the School of Information Technology, Deakin University and a member of Deakin’s Institute for Intelligent Systems Research and Innovation.

Prior to his time at Deakin University he worked in a range of academic and industry-based research roles, including on the development of the Aerosonde, Australia’s first commercial UAV and the first autonomous aircraft to cross the North Atlantic Ocean. His research interests include the mathematical formulation of problems in computer vision, image and signal processing, with applications in autonomous systems, robotics and cyber-physical systems.

Dr Wilkin received the Best Paper Award at PRICAI 2000, the Alfred Deakin Medal for Doctoral Thesis from Deakin University in 2015, the Jim & Alison Leslie Award for Outstanding Achievement in Teaching and Learning from Deakin University in 2013 and he was awarded an OLT Citation for Outstanding Contribution to Student Learning by the Commonwealth Government of Australia in 2014.

Aggregation functions play a vital role in areas such as decision support, data analytics and information processing. In particular, averaging functions – also known as means – are commonly applied in statistical analysis, image and signal processing, data fusion and decision problems. With the rise of “big data” problems, dealing with noise, missing data and outliers in real data sets requires averaging functions that are inherently robust, yet the mathematical definition of averaging aggregations makes them inherently susceptible to such corruption, leading to undesirable outcomes. In this presentation I will introduce recent developments in robust averaging, including key theoretical contributions, and demonstrate their application to problems in image and signal processing, and preference and ratings aggregation.

Zhi “Jenny” Zheng
November 18, 2016

ICC Visiting Research Assistant Professor

Zhi Zheng is a Research Assistant Professor in the department of Electrical and Computer Engineering at Michigan Tech. She received her B.S. (2008) in Biomedical Engineering and her M.S. (2011) in Pattern Recognition and Intelligent Systems from Xidian University, as well as her M.S. (2013) and Ph.D. (2016) in Electrical Engineering from Vanderbilt University. Her research interest covers a wide variety of topics in human-robot interaction, human-computer interaction, computer vision, machine learning, and developmental psychology. She was also named as a Blended and Online Learning Fellow of Vanderbilt University for conducting engineering education research. Dr. Zheng has designed and developed multiple advanced machine-assisted adaptive intervention systems for young children with ASD. Until 2016, she had 21 research articles published in leading journals and conference proceedings, and received a best paper award in HCI 2015 as well as a best student paper award nomination in ICORR 2013. Her research was selected by the 20th annual Coalition for National Science Funding Capitol Hill Exhibition & Reception, and has been reported by Medias (e.g. NSF science 360 and WSMV-TV Nashville Channel 4). Dr. Zheng also has been actively involved in teaching and demoing technologies to help K-12 students learn STEM.

Human-robot interaction is being continuously explored as a potential efficacious intervention tool for young children with ASD. ASD is a common developmental disorder with a high prevalence rate of 1 in 68 children in the U.S., which is characterized by social communication impairments. Although applying robots for children with ASD has been studied for decades, several challenges exist, including: 1) how to target the core deficits of ASD using technologies; 2) how to make robotic systems adaptive based on children’s real-time response; and 3) how to detect interaction cues non-invasively. This presentation will describe the design and development of intelligent robotic intervention systems and user studies targeting two core deficits of ASD, which are imitation and joint attention impairments. Specifically, I will discuss novel robotic systems where a humanoid robot is embedded as the intervention administrator, and coordinates with gesture recognition, large range gaze tracking, and adaptive hierarchical intervention protocol.

Hyungchul Yoon
October 28, 2016

Assistant Professor, Civil & Environmental Engineering

Dr. Hyungchul Yoon is currently an assistant professor of Civil and Environmental Engineering. His research interests include developing smart sensing technologies for managing and monitoring civil infrastructure systems. He has been utilizing the cutting edge technologies including smartphones and unmanned aerial vehicles to aid post disaster response and to monitor civil infrastructure systems. His work is inherently multi-disciplinary, involving a broad array of structural engineering, structural dynamics, system identification, computer vision, machine learning, context aware computing, signal processing, His teaching interests include structural analysis, matrix structural analysis, structural dynamics, and numerical methods.

The concept of Smart Cities has been introduced to categorize a vast area of activities to enhance the life quality of its citizens.  A central feature of these activities is the pervasive use of Information and Communication Technologies (ICT), helping cities to make better use of their limited resources. Indeed, the ASCE Vision for Civil Engineering in 2025 portends a future where engineers will rely on and leverage real-time access to living database, sensors, diagnostic tools, and other advanced technologies to ensure informed decisions are made.  However, these advances technologies are against a backdrop of our infrastructure deterioration and natural and human-made disasters. Moreover, recent events constantly remind us of the tremendous devastation that natural and human-made disasters can wreak on society.  As such, emergency response and resilience are among the crucial dimensions of any Smart City. The Department Homeland Security (DHS) has recently launched plans to invest $50 million to develop cutting-edge emergency response technologies for Smart Cities.  Furthermore, after significant disasters, it is imperative that emergency facilities and evacuation routes, including bridges and highways, be assessed for safety. The objective of this research is to provide new framework using commercial off-the-shelf (COTS) devices such as smartphones, digital cameras, and unmanned aerial vehicles for enhancing the functionality of Smart Cities, especially with respect to emergency response and civil infrastructure monitoring/assessment. To achieve this objective, this research focuses on the post-disaster victim localization and assessment, first responders tracking and event localization, vision-based structural monitoring/assessment, including the use of unmanned aerial vehicles (UAVs). This research constitutes a significant step toward realization of Smart City Resilience.

Christian Wagner
September 16, 2016

ICC Visiting Professor


Christian Wagner’s research focuses on modeling & handling of uncertain data arising both from qualitative (people) and quantitative sources (e.g., sensors, process), decision support systems and data-driven policy design. He has published more than 80 peer-reviewed articles, including prize-winning papers in international journals and conferences, most recently having co-authored runners-up for both the best regular and best student papers at the IEEE International Conference on Fuzzy Systems 2016 in Vancouver, Canada. He has attracted around £1 million as principal and £6 million as co-investigator in the last six years. He is an Associate Editor of the IEEE Transactions on Fuzzy Systems journal and is actively involved in the academic community through for example the organization of special sessions and tutorials at premiere IEEE conference. He has developed and been involved in the creation of multiple open source software frameworks, making cutting edge research accessible both to peer researchers as well as to different research communities beyond computer science, including an R toolkit for type-2 fuzzy systems and a new Java based framework for the object oriented implementation of general type-2 fuzzy sets and systems. His current research projects focus on the development, adaptation, deployment and evaluation of artificial intelligence techniques in inter-disciplinary projects bringing together heterogeneous data from stakeholders and quantitative measurements to support informed and transparent decision making.

Most, if not all information sources, whether sensors through measurement, processes through inference, or humans through their opinions, are uncertain. While uncertainty is often either ignored or modeled retrospectively, this risks information loss, potentially resulting in poorly informed decision making, in particular when multiple data sources are combined. In this talk, I will discuss the capture, aggregation and modeling of interval-valued data with a specific focus on human sources. The talk will include a number of techniques and recent applications from crowd-sourcing, to consumer-driven food manufacture and environmental conservation management decision support.