Visiting Student Benoît de Patoul Is Mapping a Better Future.

Our blogger, Molly Gilstrap, recently interviewed a visiting student from Belgium about his research and time at UMKC.

Benoît de Patoul is working towards a master’s degree from the ECAM Brussels School of Engineering in Industrial Engineering. Read on to hear about his wildfire research and how the Midwest weather was something entirely new.

1. Tell us more about the research you have been working on!
The research is about mapping the vegetation loss on radar images after a wildfire. When I talk to people about the research, they often ask me the same question: “Why do you need to map that?” The answer: It allows us to save human lives. You are probably wondering why, right?

A heavy rain after a wildfire can result in breakouts of mudflow or debris flow, which can threaten residential communities and even kill people. Knowing where the burned areas are located is critical for agencies to prepare people for secondary hazards.

The idea of the algorithm is to take two radar images, one before and one after the fire. Using these two images, the algorithm will detect the changes and classify them. The image below shows some of our results. The red represents the burned areas, the black shows the changes in the urban area, the green shows the changes in the vegetation, and the blue represents areas with no change.

2. What peaked your interest in this project?
I have always wanted to conduct my research in the United States, so I started looking and asking around to see if someone could offer me the right opportunity. The first person to contact me was Dr. Chen at UMKC SCE. He offered me different subjects, but this particular one had a connection to NASA and image processing. I directly seized the opportunity, not only because it was related to NASA, but because it was going to be very challenging for me.

3. Did you come across any obstacles or challenges?
Yes, a lot of challenges and obstacles. First, there is a lot of theory I had to learn in a very short time. Second, I had to develop an algorithm to accomplish the objectives of the research. That’s very challenging because it’s a long process and as you develop the algorithm, you will always have obstacles that can take a lot of time to overcome.

4. How has your experience been as a visiting student?
I really loved this experience. Discovering a new culture is something completely unique. I would encourage anybody to try it! It a very enriching experience, I learned a lot about myself and I made a lot of good friends.

5. How have you liked living in Kansas City?
I was living near the Country Club Plaza on campus in the Oak Place apartments. Kansas City is a very beautiful city with very friendly people. I would certainly recommend it. The city has good public transportation and it is free for UMKC students. The weather can be kind of weird because it can radically change from one day to another, but you get used to it.

6. What are your future plans?
I’m completing my master’s degree this year. I really like to learn new things and I’ve been accepted to do another master’s degree in Technology Management at University College London. It is not an easy task to be accepted, but I think what really helped me was choosing to do my research abroad, especially in United States.

 

A New Center For Nanotechnology

Recent NSF Grant awarded to Masud Chowdhury, Ahmed Hassan and Mostafizur Rahman will be used to establish a new center for nanotechnology.

Remember when cell phones looks like bricks and had about enough computing power to make a call and send a text… and that was it?! Sure – by the time most of you reading this were born, Nokia offered snake and…for a very hefty price tag…you might get a very slow internet connection, but mostly phones were clunky and did very little.

So how did cell phones get smaller AND more powerful? Nanotechnology. Researchers across the globe are rushing to discover new and innovative ways to cram more computing power into smaller and more efficient devices, and it’s not just the phones you use. Nanoelectronics research supports wearable technology, circuitry and systems for your laptops and desktops, materials that are stronger and lighter than materials we use today, and applications in energy efficiency and biomedical advances that are shaping our futures.

All of this is why at UMKC’s School of Computing and Engineering (SCE) we are proud to have top researchers in nanoelectronics committed to engaging our graduate and undergraduate students in this growing field. Dr. Masud Chowdhury, Dr. Ahmed Hassan and Dr. Mostafizur Rahman have recently received a grant for $771,000 from National Science Foundation to develop a nanotechnology research facility.

This new center is named Center for Interdisciplinary Nano Technology Research (CINTR). This new center will be comprised of an equipment laboratory that will allow researchers and students for experimentation and fabrication of nanoscale devices and circuits, and a high-powered computer simulation to perform in-depth analysis and validation of nanoscale designs and applications. Additional goals for the team include ramping up K-12 STEM outreach around nanotechnology themes and welcoming high school students to utilize the facility for learning

“The types of research we are doing now are focused on the theoretical. With this new facility and centralized focus on nanotechnology, we can bring our research to next level,” shared Dr. Chowdhury. The research laboratory is already under development and we look forward to bringing you updates from the lab this Spring 2017.

About the NSF CISE Research Infrastructure Program Grant:

Grant Title: Experimental Characterization and CAD Development Testbed for Nanoscale Integrated Circuits

Agency: National Science Foundation

Approved Budget: $771,000

Project Summary: The aim of this NSF CRI-II-NEW project is to develop a testbed for computer aided design (CAD) simulations, experimental metrology, and software and hardware calibrations to support cross-layer evaluation of novel nanoscale 3D heterogeneous integration of CMOS and post-CMOS technologies. Proposed tools and equipment acquisitions and sustainment will allow bottom-up evaluations from materials, fundamental physics, and experimental metrology to device and circuits to large-scale systems. The proposed infrastructure is unique and will enable thorough evaluation of new 3D heterogeneous integration concepts with accuracy only parallel to full-scale experimental prototyping. It will directly impact the nano-electromagnetics, nano-device, circuits, 3D IC and manufacturing research directions, and will also have significant impact on the big data analytics, renewable energy, smart-city, RF and electromagnetics research initiatives in Computer Science and Electrical Engineering (CSEE) department at University of Missouri-Kansas City (UMKC). The testbed will not only facilitate transformative research, but will also allow broad ranging educational and outreach activities such as new undergraduate and graduate curriculum development with lab modules, training and mentoring of research students, research dissemination thorough forums and seminars, development of online repositories and online labs, and nanotechnology awareness for K-12 students through summer workshops. The boarder impact of this project is that the proposed infrastructure will provide unique opportunities for research, education and community outreach in the fields of nanomaterials, nanodevice, nanocircuit, biosensing, heterogonous integration, and nanomanufacturing.