Sreekar Praneeth Marri

Hi, I’m Sreekar.

Soft Robotics · BioRobotics · Robotic Systems · Machine Learning & AI

I’m an M.S. student in Robotics & Autonomous Systems at Boston University and a Graduate Researcher in Professor Tommaso Ranzani’s Morphable Biorobotics Lab. My work sits at the intersection of sensorized soft bioinspired robotics, robust sensing, and machine learning-based control, turning noisy real-world signals into reliable state estimates and control-ready actuation commands.
I started in Computer Science Engineering (AI) at Amrita, then worked across ROS/UAV autonomy and applied ML research. During an academic exchange at University of California Riverside, I focused on time-series anomaly detection on scientific gravitational signals (LIGO), which shaped my research style: careful baselines, rigorous evaluation, and clear failure-mode analysis with multiple iterations and improvements.

Fun fact: I’m a certified Starbucks barista ☕.

Feel free to explore the site for projects and research highlights as well as my CV for more information.

ML Systems
Deep Learning
Time-Series
Soft Robotics Control
Computer Vision
NLP / LLMs

Current work (Thesis)

Real-Time Machine Learning-based control of a underwater Stacked Balloon Actuator (SBA)

  • Platform: Multi-DOF SBA with embedded sensing for tip communication and sensing.
  • Sensing: synchronized IMU + magnetometer readings, plus Aurora EM tracking for ground-truth pose and dataset alignment.
  • Models: two-phase learning pipeline - (1) residual network: (Δx,Δy,Δz) → quaternion, (2) LSTM: (magnetometer + quaternion) → volumes (VA,VB,VC).
  • What it enables: reliable open-loop actuation and a foundation for closed-loop control (MPC / model-based RL).
Major results accomplished so far:
Large repeatable dataset, quaternion prediction, and open-loop infinity (lemniscate) tracking.

At a glance:

How I typically work (and what I optimize for)
  • End-to-end: sensing → data pipelines → models → evaluation → control integration.
  • Practical ML: clean datasets, reproducible training, measurable gains, and deployment-minded constraints.
  • Focus: robust learning under physical constraints for deployable soft robotic systems.
You’ll see:
Honest diagnostics and strong experiments, and controllers designed based on ML/AI algorithms.

Timeline

Timeline highlighting my Experience and Education (most recent → oldest).
Hover/tap for GPA/Honors (education) and stack (experience).

Experience · BU College of Engineering Sep 2025 - Jan 2026

Teaching Assistant (ME 568 · Soft Robotics)

Led lab sessions, mentored teams, supported course delivery

Experience · BU School of Medicine (Tay Lab) Nov 2024 - Mar 2025

Research Programmer

Biomedical imaging workflows for microglial cell identification

Education · UC Riverside Sep 2023 - Jun 2024

Advanced Certificate in Engineering (Computer Science)

Academic Exchange, Undergraduate Senior Year

Experience · IISc Bangalore Jun 2023 - Sep 2023

AI Research Intern

LLM/NLP pipelines + benchmarking; applied ML research

Experience · NewSpace Research & Technologies Jul 2022 - Sep 2022

Robotics Intern

Quadcopter SITL + ROS-based autonomy integration

Education · Amrita Vishwa Vidyapeetham Sep 2020 - Aug 2023

B.Tech · Computer Science Engineering (Artificial Intelligence)

First Class with Distinction

Education · Alpine Public School 2018 - 2020

11th & 12th Class

Higher Secondary

Education · Air Force School 10th Class

Secondary School

10th Grade