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Dr. Eric Rohmer
I am a French robotic researcher currently working as a post-doc researcher at
the University Estadual de Campinas (UNICAMP) on the DESTINE (DESenvolvimento
de Tecnologias da Informação para NEurologia ) project. I received a polytechnic diploma in
mechanical engineering and industrial automation in 1996, a B.S degree in
industrial production in 1997 from the Henri Poincaré University in France. I
got my MSc degree at Ecole Superieure d’Informatique et Applications de
Lorraine (ESIAL) in 2000 in France, which is a leading graduate school of
engineering in Computer Integrated Manufacturing (CIM). During my master's
degree, a growing interest for robotics led me to do several internships in
Japan where I discovered another aspect of robotics different from the
Industrial one. After my graduation, I worked as a mechanical engineer till
2001 in Luxembourg at Husky Injection Molding Systems, where I designed numerically
controlled large tonnage injection molding machines. In April 2001, I moved to Japan where I was
awarded the Japanese scholarship Monbusho, to study Japanese language for a
year at the university and then to complete a PhD in computer science, in the
Advanced Robotics Laboratory of the Tohoku University. I defended my
dissertation thesis "Modular Intelligent Interface to Assist Human in
Operating Construction Machines." in March 2005. I developed during my 3
years doctoral research, a modular bilateral master-slave teleoperation
platform to assist operators of heavy duty machines (backhoes, concrete
injection machines, inspection platforms...) in their tasks. I was then hired as an assistant researcher
at the Space Robotic Laboratory, in the department of Aerospace Engineering of
the Graduate School of Engineering at the Tohoku University. I was there a
co-supervisor of an undergrad exchange student, three masters (two exchange
students) and a doctor candidate, and continued my research on teleoperation
platforms. The two projects involving my research was concerning rescue
robotics "Development of networked robotic system intended to be
deployed at disaster areas, (SCOPE project)", and an asteroid robotic exploration
mission "Study of A High Level Teleoperation Platform for Space Robotic
Missions applied to an asteroid surface exploration robot mission (Hayabusa
Mk 2) ", in collaboration with
the Japanese Space Agency (JAXA). These projects allowed me to extend my
teleoperation platform to deal with large time delays between the Earth and a
foreign planet (simulation based offline teleoperation) and to teleoperate
mobile rescue robots (online teleoperation) In November 2006, I was awarded by the
Japan Society for Promotion of Science
(JSPS) a post doctoral scholarship to develop a "Novel Teleoperated
Hybrid Wheel-Limbed Hexapod for the Exploration of Lunar Challenging
Terrains". On this topic I supervised four masters exchanged students, and
co-supervised a doctorate student. My research led me to build a prototype
of a novel kind of hybrid leg-wheel
robot: Lunar Exploration Omnidirectional Netbot (LEON) and developed a
modular dynamic engine based telerobotic platform called ERode . The telerobotic
platform deals with many kind of teleoperation (manual teleoperation,
supervision, simulation based offline teleoperation) integrates a novel type
of dynamic simulation based path/action planner for hybrid robots and is
useful for the design, development and testing of robots and control algorithms
as well as their teleoperation/supervision. In
March 2009, I got a two years contract at the Robotic Technology for Safety,
Security and Welfare of the Life laboratory of the Tohoku University, as a robotic
researcher. I was involved in several laboratory staff activities including
co-supervision of grad students, lab workshops and classes. I participated at
the Robocup rescue 2009 and 2010. In the 2009 edition, I was in charge of
developing an algorithm that drives Kenaf rescue robot to a target point
defined by the higher level of control, while adjusting the flippers' angles
autonomously to the ground to maximize traction power. Our team finished 2nd
at the competition, 1st at the mobility challenge, 1st at the manipulation
challenge, and 2nd at the mapping challenge. My main task in the laboratory, was
to be a member of the team that designed and developed the hardware and
software of Quince rescue robot. We build several prototypes for the NEDO project
(New Energy and Industrial Technology
Development Organization) . Beside the design, development and building of Quince, my focus
was to implement a semi-autonomous control of the flippers to help the
operator driving Quince. I developed several dynamic simulation/ desktop
training of Kenaf and Quince. My
contract was ending end of march 2011 but two weeks before its end, the Tohoku
- pacific ocean earthquake, followed by a tsunami and a nuclear disaster, hit
Japan (and especially Sendai where is located the Tohoku University), and I
was repatriated to France few days later. Quince rescue robot was used to
inspect destroyed houses, looking for survivors. After few months, Quince's
retrofitting to sustain radiation was over and since then, three Quince
robots are used by TEPCO to do several mapping, inspection and radiation sensing
missions inside the damaged reactors of the Fukushima nuclear plant. I returned to Japan for
few months after spending two months in France, in order to finish my work
and prepare my moving to Brazil. In the time being, I developed several
device interface (wiimote, kinect, augmented reality tag based input, iphone's
sensor based control, ar-done quad rotor robot, Rovio mobile robot, dynamixel
servos...), simulation models (flying quad rotor model based on particle
projection), and plug-in for Coppelia Robotics V-REP simulation framework. I
have been working with Coppelia robotics (as a volunteer), on extending V_REP
simulator to be used as a real framework not limited to simulation,
connecting it to real robots and sensors.
In November 2011, I
started my post-doctoral research as a FAPESP scholar on the DESTINE project
and got involved in the founding of the Brazilian Institute of Neuroscience
and Neurotechnology BRAINN. The DESTINE project is a project funded by FINEP under
the Assistive Technologies Program. It aims at building an assistive mobile
robot (e.g., a robotized wheelchair) that can navigate with signals acquired
from the operator mental and physical signals as well as from a smart
environment. My personal focus is to design, implement, and evaluate a
software platform from which smart environments that helps the navigation of
assistive robots carrying disabled persons can be built.
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