Michael P. Scherer is a leader in the maritime robotics industry. He is currently the Chief Technology Officer at Chance Maritime Technologies.
Michael has over a decate of experience in designing, building, and operating uncrewed vessels. He has scaled and modularized an autonomy platform used on over 125 USV's worldwide, and commissioned over a dozen USVs/ASVs.
Personal Portfolio
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Education
MS Computer Science (2024) Georgia Tech
BS Computer Science (2012) University of Central Florida
There aren't any available commercial options for open source fish finders on the market today. There are depth sounders that provide standardized interfaces (e.g. NMEA0183 or NMEA2000), but none which provide the full water column. The nature of the network interface for Vexilar's SonarPhone series made it a perfect candidate to reverse-engineer.
There is a steep learning curve for sequencers
and mission planners to create mission plans for landing and driving robotic vehicles on current text-driven
interfaces. Touch screen interfaces are quickly growing in popularity as a means to effectively and intuitively
interact with computers and robotic systems. Future Prototype Assessment for Cockpit 2.0 (FPAC) is designed
as a system for assessing the effectiveness of various touch-based paradigms for mission planning and sequence
development. Operations for approach, landing and investigation of near-earth objects (NEOs) with the ATHLETE
platform are chosen as the use case for this system. Scientists, engineers, and other mission-planning roles are
the primary audience for FPAC. Usability and training minimalization are the primary metrics for this system, in
order to optimize the workflow of sequencers and mission planners. Flexible touch-based camera controls, interactive
timeline, sequence comparison options, and 3DConnexion SpaceBall integration are all included features in the
assessment package.
AUTOMATON was designed to compete in the 19th annual Intelligent Ground Vehicle Competition in Rochester, Michigan. In this competition, the vehicle must fully autonomously navigate an obstacle course, locating waypoints and remaining within lane lines.
Boatname the Brave
Designed for competition in the 2010 and 2011 RoboBoat competitions, Boatname the Brave is a fully autonomous surface vehicle (ASV). The vehicle, in addition to the sensor listed below, featured a water cannon, dual differential Crust Crawler 3-phase thrusters, and a swinging arm.
Telesurgery
Created a simulator for interactions using a robotic arm in high delay. The robot could be operated with a Novint Falcon, a 3DOF conroller with full 3D haptic feedback
KnightBright
Created for the 2010 IEEE SoutheastCon Hardware Competition, KnightBright is a fully autonomous solar powered vehicle. The robot was not allowed to have any stored energy before the start of the competition and could only derive energy from four 400 Watt lamps positioned around the course.
Because the light sources were suspended at a fixed distance from the ground, a scissor-lift was designed to elevate the solar panels closer to the source, thereby increasing the amount of energy harvested while decreasing the number of panels required. This had the unfortunate consequence of cooking some of the panels (as shown in the picture). The panels were hooked in parallel to a large bank of capacitors, whose voltage was monitored by the microcontroller on board. After passing a threshold (or exceeding a timeout), the microcontroller would drive the robot away from the light source and towards the wall. From there, a PID controller was used to align the robot with the wall using the two flex sensors. These sensors would also detect when a corner was reached, so that the vehicle could perform a turning maneuver.
Krewe de Canailles
Krewe de Canailles celebrated yardigras in 2021 during the pandemic! The theme for the event was "Oh the places we didn't go".