Robotics researchers in the College of Engineering at Oregon State University are working with colleagues at the University of Washington through a partnership with the Pacific Marine Energy Center to help the Navy develop new technology to expand the abilities of robotic arms mounted on remotely operated vehicles beneath the ocean surface. 

The Office of Naval Research earlier this year awarded a three-year, $3.3 million grant to the University of Washington Applied Physics Lab, of which $2.2 million will go to Oregon State. Geoff Hollinger, associate professor of mechanical engineering and robotics, heads up the Oregon State team. 

ROVs are “unoccupied, highly maneuverable underwater machines that can be used to explore ocean depths while being operated by someone at the water surface,” according to the website of the National Oceanic and Atmospheric Administration. Think of them as remote-controlled submarines. ROV operations eliminate human presence underwater and are thus safer and easier to conduct than operations employing divers or occupied submersibles. 

Initially developed for industrial tasks like pipeline inspection, ROVs have been adapted for a variety of other tasks, many of them scientific and educational. A typical ROV is equipped with cameras and lights at minimum, but they often come loaded with additional instruments, such as probes or robotic arms. ROVs can be as small as a toaster oven or as large as a truck. Whatever their size, they’re controlled remotely by an operator in a surface vessel with a joystick, similar to a video game controller. 

“Our project focuses on moving the role of the operator from one of low-level control to that of providing high-level, explainable goals for subsequent execution by the robotic arm,” Hollinger said. “We’re doing fundamental research on algorithms for robotic control, perception, planning, and decision-support, as well as hardware design, to improve the efficiency and reliability of subsea manipulation of the robotic arm.” 

The researchers, including Oregon State engineers Julie Adams, Joe Davidson, Heather Knight, Fuxin Li, and Kagan Tumer, will work with a robotic arm mounted on a test stand, with the future goal of mounting the arm on remotely operated vehicles while maintaining human-in-the-loop control authority, Hollinger said.

 Keith Hautala

James Matthew Ewing grew up in Lebanon, Oregon, and is a sophomore in electrical engineering. His experiences with research and the OSU Robotics Club have fueled his interest in robotics. He plans to pursue a career in low-power electronics after graduation.

James Ewing is soldering a PCB for a robotic grasping testing device in his garage lab.

As a student from a small high school going into college, finding the path to success seemed like a daunting task. But it is possible! The first step I took was to find what makes me happy, through extracurricular involvement with robotics and undergraduate research.

Through my involvement in the OSU Robotics Club, I found that I have a blast solving engineering problems as part of a team. My journey started when I joined the Mars Rover subteam and took on a project to design printed circuit boards that no one else wanted to. At first, I had no idea how to design a PCB. But after attending OSURC’s technical workshop, I was able to complete the project. The technical skills I learned allowed me to do more than a first-year student who had built their knowledge solely from the course curriculum. 

In the fall of 2020, during the height of the pandemic, I became the president of the robotics club.  This role has allowed me to grow as a leader in an ever-changing environment. The love that OSURC’s members show for robotics is intoxicating. This experience has driven me to become the best leader I can, so I can pass on the love of robotics to others. As president of the club, I have built connections with faculty, industry experts, and other students that will last beyond my tenure as president. I am grateful for the amazing learning experience.

Another large part of finding happiness has come from balancing finances and education. The first step I took was through the Undergraduate Research, Scholarship, and the Arts program. As a first-year student, I took the initiative to apply for the program and was accepted by Professor Cindy Grimm. My project was to create a sensorized, “smart” apple that allowed robotic hand grasping algorithms to collect data on how to pick an apple. After finishing my research project, Professor Grimm hired me as an undergraduate research assistant with flexible hours. As a result, I’m financially stable and still have enough time to get hands on experience and learn the course material. 

Finally, I have been very fortunate to have an amazing group of friends who have had my back throughout my college years. This started with a small group of friends from high school that expanded as I met more amazing people in my electrical engineering classes. I can’t emphasize enough how important having a support group has been for me. Without having my friends there to bounce ideas off of and to remind me about assignments that are due, I don’t believe I would have made it as far as I have.   

What I’ve learned is that success doesn’t happen to people because they are smarter or better. I am definitely not the most intelligent person, but I make up for that by putting in effort into activities outside of my courses. Take my story as evidence that finding balance and building connections will lead to happiness and success in college and beyond.   

James Matthew Ewing

Mechanical engineer endeavors to improve hand surgeries

Sutures have been the primary way to connect muscles, tendons, or any biological tissue for 30,000 years. This fundamental method of sewing together living body parts has served humankind well, but Ravi Balasubramanian sees room for improvement. Through a new research project called REHand (for Re-Engineering the Hand) he is designing a mechanical implant that provides an alternative to the suture for attaching muscles to tendons in certain applications such as tendon transfer surgeries on patients with hand injuries.  Continue reading