Dr. Lok C. Lew Yan Voon
School of Science and Mathematics
University of West Georgia Carrollton, GA
Brief Biography: Dr. Lok C. Lew Yan Voon is currently a full professor of physics and Dean of the College of Science and Mathematics at The University of West Georgia, USA. He did his PhD in Semiconductor Physics at Worcester Polytechnic Institute and then was an Alexander von Humboldt postdoctoral fellow at the Max Planck Institute for Solid State Physics in Germany in the group of Prof. Dr. Manuel Cardona. He received the NSF CAREER award (US) and the Balslev award (Denmark) for his research and was appointed the Traubert chair as Dean of the School of Science and Mathematics at The Citadel. Dr. Lew Yan Voon's current research is in nanomaterials.
Dr. Lok C. Lew Yan Voon will deliver a plenary talk on "Development of two-dimensional nanomaterials for electronic and optical applications." The focus will be on the materials, fabrication and the theories available for modeling them. He will discuss the fabrication of nanomaterials and their physical properties. This will be followed by a few examples of optoelectronic devices designed using these materials. Finally, he will present an overview of the theoretical tools developed to study electrons and phonons in these materials.

Associate Professor
Electrical Engineering, Computer, and Energy Engineering
University of Colorado at Boulder
Brief Biography: Alan Mickelson received a PhD in Electrical Engineering with subject minor in Physics from California Institute of Technology Pasadena, CA, was a Postdoctoral Fellow in Byurakan, Armenia and spent four years at the Norwegian Institute of Technology as a Postdoctoral Fellow and staff member of the Elektroni laboratoriet before coming to Boulder. Alan’s primary research focus is optical nanotechnology, most recently silicon photonics for computer interconnections. Alan had previously worked in integrated optical materials, integrated optical devices for microwave applications, semiconductor laser stabilization as well as fiber optics.
Abstract: Silicon photonics is the most effective technology for moving digital signals back and forth from circuits to optical fibers. Present day applications of silicon photonics are described with some speculation as to what the future may bring. Specific realizations of silicon photonic chips are discussed to introduce the technology. The origins of the integrated optics in silicon are reviewed. The present state of internet scale data communication is discussed to explain the place of silicon photonics devices in data centers. Discussion turns from data centers to high performance computing to big data and onto sensor fusion in the internet of things. Some attention is placed on production of silicon photonics components with a focus on prediction of future development.

Dr. Shekher Verma
Department of Information Technology
Indian Institute of Information Technology( IIIT), Allahabad, India
Communication in IoT - Internet of Things (IoT) consists of smart devices that cooperate and communicate among one another to sense, collect and exchange data. The need for communication depends on the applications such as personal information, industry, transportation, logistics, healthcare smart environment etc. The Internet of Things (IoT) technology needs a standardized way of connecting devices to each other and to internet. WiFi or WLAN technology has been playing a crucial role in machine to machine communication. The main demands of IoT communication are ubiquity and reliability. Wireless IoT employ different wireless communication technologies and protocols to connect to each other. They may use short range standard network protocols like IPv6 Low Power Wireless Personal Area Networks, ZigBee, Bluetooth Low Energy, Z-Wave and Near Field Communication (NFC). Low Power Wide Area Network (LPWAN) standard protocols like SigFox and Cellular are also employed. In this lecture, a review of the existing communication techniques will be discussed.

Dr. Rajesh Gupta
Associate Professor
Department of Electrical Engineering
MNNIT, Allahabad, India

Recent Challenges in Renewable Power Conversion and Grid Interface - World-wide depleting fossil fuel energy reserves and environmental concern are the prime reason why power engineers are shifting towards renewable energy generation. Bulk power generation from renewable energy resources to supply clean and controlled output is an important requirement. In particular, solar and wind power generation accounts for nearly 1.5 % and 2.3 %, respectively, of the net global electricity generation. Due to intermittent nature of renewable energy sources, there is need of energy storage and grid interconnection. Utilizing energy from such distributed energy resources (DER) requires judicious choice of their ratings, locations and control, else it may deteriorate the overall grid system performance, which includes real and reactive power flow, power losses, unbalanced voltage profiles, voltage sag/swell, harmonic distortions etc. Other challenges with DERs involve varying load power demand, instantaneous active and reactive power balance, converters control etc. in grid connected and islanded mode of operation. Challenges with power conversion involves various technology aspects such as extraction of maximum power from the renewable energy systems, DC-DC converters, and inverter control to supply clean and stable AC power. These involve power coordination and control of single and three phase converters in distributed energy resources. Efficient energy storage units and their controls are required to accomplish the power balance. The system study with the renewable power conversion could be further extended for operational scenarios involved in AC/DC microgrids.

Dr. Mayank Pandey
Assistant Professor
Department of Computer Science and Engineering
MNNIT, Allahabad, India

Software Defined Wireless Fog-Mesh: Towards a Communication and Computation Infrastructure for Smart Environments - Recently, the ideas of fog and edge computing have been proposed to move the computation near the end devices that produce or consume data. These ideas can easily be utilized for IoT based smart environments. Generally, the practical implementations of smart environments rely heavily on cloud for data processing, analytics and decision making. The data captured by IoT devices is transferred via Internet towards cloud data centers which may introduce unwanted delay in real time scenarios. If we go by the popular predictions regarding number of active IoT devices, the best effort service provided by Internet may become a huge bottleneck. Further, to make the environment IoT friendly, a scalable communication infrastructure is needed which should be cost effective and can sustain the ever increasing number of devices. In this talk I would provide the details of our attempts to build a wireless mesh based fog computing infrastructure for IoT enabled smart environments. The important aspect of our methodology is that it can quickly be deployed for use-cases where smart environment is needed on a temporary basis, such as rock concerts, fairs, sporting events, etc. I would present the challenges we faced while implementing a small scale prototype test-bed where mesh routers are made to act as fog nodes. The talk would also highlight the usage of Distributed Hash Table (DHT) for resource discovery among fog nodes . Also, some directions would be provided to utilize Software Defined Networks (SDN) concepts to dynamically adjust the policies of underlying wireless network according to the context.

Dr. Nitin Kumar Tripathi
School of Engineering and Technology
Asian Institute of Technology, Thailand
Nitin Kumar Tripathi received his Ph.D. in Remote Sensing from the Indian Institute of Technology, Kanpur, India, in the year 1994. Dr. Trpathi is also serving as the Coordinator of Remote Sensing and GIS Department in Asian Institute of Technology, Bangkok, Thailand. He has also served as Dean (School of Engineering and Technology), Director (Academic Quality), Director (UNIGIS), and Associate Dean at the Asian Institute of Technology. He is the Editor-in-Chief of International Journal of Geo-Informatics. His research interest pertains to areas of Geo-Informatics Applications for Location Based Services, Health, Forest, Environment, Marine and Coastal Zone Monitoring. He has authored around 131 papers in International Journals and International Conference Proceedings. He is also the author of a book titled “Remote Sensing in Geosciences”. He is a recipient of DAE Young Scientists Award, AICTE Career Award and Osaka City University Distinguished Researcher Award. He has also won many best paper awards for his papers presented in many International conferences. He has successfully completed sponsored projects from European Union, UNEP, Royal Thai Government and Government of India. He is actively involved in conducting training programs for UNODC, UNEP, FAO, Forestry Dept. of Nigeria, GISTDA Thailand and MACRES Malaysia.

Dr. Ashok K. Tiwari
Vice President
UltraTech Cement, India
Low Carbon Concretes for Sustainable Constructions - India produces more than 100 million cum of concrete in organised sector. Most of the Concrete are rich in cement, either made with Ordinary Portland Cement or small replacements with Fly Ash. Still the preference is towards Normal Portland Cement Concrete. These concrete has high carbon footprints and are un-sustainable. The study explores the possibility of use of GGBS as cement replacement and other steel slag as aggregate replacements to reduce the carbon footprints of various structural concretes. It has been observed that carbon footprints of concrete can be reduced by more than half with these possibilities retaining structural properties and improving the durability characteristics of at the same time.

Dr. Varun Jeoti
Electrical and Electronics Engg.
Universiti Teknologi PETRONAS, Malaysia
Prof. Dr. Varun Jeoti completed his PhD from Indian Institute of Technology, Delhi. His research interests include Surface Acoustic Waves (SAW) devices to signal processing and wireless communication for various applications. His spectrum of work includes maritime wireless systems to SAW sensor-tags for various applications.
Abstract: Establishing a microwave link over sea is fraught with many challenges. Conventional microwave links are limited by line-of-sight distances. Beyond line-of-sight technologies are limited to satellite based solutions or troposcatter based solution. Luckily nature has provided us with evaporation duct over the sea water. The climatology suggests that the duct exists for fairly high percentage of time. We will explore in this presentation the possibility of suitably designing link.

Dr. Lordwin Jeyakumar
Visiting Scientist
NSERC, Canada
Agriculture and Agri-Food Canada
Dr. Lordwin Jeyakumar is a systems scientist with extensive experience in field of measurement, lab experiments and numerical modeling of ecosystems’ processes. He received the prestigious UCD Research Demonstrator Scholarship, University College Dublin, Ireland to pursue his PhD dissertation work. He has ample experience on spatio-temporal aspects of soil-water-plant-environment processes which includes completing several funded research projects in soil water plant relationships, evapotranspiration, irrigation scheduling, hydrological modelling, biogeochemistry, water quality/treatment, wetlands for pollution control and ecological modeling of complex systems. He has also published articles in peer reviewed journals.