About me
Adarsh Salagame
Controls, autonomy, and hardware/software system design for robots operating in challenging environments.
I have built and worked on a wide variety of conventional and unconventional robots from legged systems, underwater robots and drones, to snake robots, flapping wing systems and morphing multi-modal robots.
Background
I got my undergraduate degree in 2019 in Electrical Engineering from BITS Pilani, Hyderabad Campus in India, following which, I spent a year at the Indian Institute of Science (IISc), Bangalore. There I co-led a small team working on autonomous drone problems, including autonomous landing on moving targets and vision-based obstacle avoidance.
In 2020, I came to Northeastern University, Boston, USA to pursue an MS in Robotics, during which I did a co-op at the Woods Hole Oceanographic Institution (WHOI) focused on development and operation of long-range underwater robots. I stayed on at Northeastern and started my PhD in 2022 with Dr. Alireza Ramezani at the SiliconSynapse Lab, which works on bio-inspired, multi-modal robots designed for operation in complex terrain. My PhD thesis work is on snake robot autonomy and control, and I am exploring contact-implicit modeling for gait generation and integrating it with onboard SLAM and vision-based autonomy for locomotion and loco-manipulation in unstructured environments.
I have also worked on several other platforms in the lab, including M4, a morphing ground-aerial robot, for which I studied trajectory optimization for in-air posture manipulation and thrust vectoring to demonstrate agile flight, as well as traversability estimation for multi-modal path planning to help the robot decide when to use ground or aerial modes.
Research Areas
Descriptions, publications, and notes across my active research areas.
Recent papers
Recent publications across the research areas on this site.
![[PAPER] Conjugate momentum based thruster force estimate in dynamic multimodal robot](/assets/papers/covers/pitroda_conjugate_2025.png)
![[PAPER] Crater Observing Bioinspired Rolling Articulator (COBRA)](/assets/papers/covers/salagame_crater_2025.png)
![[PAPER] Dynamic Quadrupedal Legged and Aerial Locomotion via Structure Repurposing](/assets/papers/covers/wang_dynamic_2025.png)
![[PAPER] NMPC-Based Unified Posture Manipulation and Thrust Vectoring for Fault Recovery](/assets/papers/covers/salagame_nmpc-based_2025.png)