Shivendra Agrawal

CAIRO Lab @ CU Boulder

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University of Colorado

Boulder, Colorado

About myself: I am a 5th year CS Ph.D. student with Prof. Bradley Hayes at CU Boulder. I am interested in Robotics, Accessibility, and Human Robotics Interaction (HRI) and unifying them to create real-world Assistive Technology. My thesis involves developing robotic systems that can assist people with visual impairments in performing daily tasks more independently by providing long-term and fine-grain guidance.

Other interests: I enjoy playing tennis a lot (like a lot!!). On good sunny days, I also like to bike and run in the lovely city of Boulder. (Bonus) Boulder Creek Path Fall view through my bike. I also like to explore local food and beverages.

Minor-flex - I have more than 51 millions views on my Google Map contributions and have received a rather vibrant pair of socks from Google. And no, that was all I ever got from them.

Research Summary:

  • Social Goal-Finding and Navigation:
    Our first work in this series uses insights from psychology to locate socially preferred seats (seats with high privacy and low intimacy). It aims to help blind and visually impaired (BVI) people to participate in the nuances of seat selection in public settings like sighted people. Project page

  • Grasping Guidance with Markov Decision Process:
    Next work creates a system that can assist with an important sub-task in independent grocery shopping. Our system called ShelfHelp uses a novel computer vision algorithm to locate grocery items on a shelf and a Markov Decision Process-based fine-grain grasping guidance algorithm that issues verbal commands. Project page

  • Semantic Monte Carlo Localization with minimal sensors:
    Estimating the location of an autonomous agent in cluttered, quasi-static environments such as grocery stores is challenging. We introduce a novel semantic localization algorithm that parses a semantically rich scene (think quasi-static, densely-packed aisles of shelves) and fuses the information with depth to estimate the 2D pose of the system with low-cost sensors. Project page

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