PhD Candidate · WPI · Columbia · Boston, MA

Steven
Hyland.

I build robots that reason about the physical world — specializing in manipulation, dynamics modeling, and bridging simulation to reality. Currently finishing a PhD in Robotics Engineering at WPI.

Steven Hyland

Physics-first.
Learning-forward.

I'm a PhD candidate at Worcester Polytechnic Institute, where I research active perception and parameter estimation for robot manipulation. My work focuses on letting robots figure out the physical properties of objects they've never encountered before — without being told in advance.

My background is rooted in analytical, model-based methods — robot dynamics, sim2real transfer, and model-based control. I'm increasingly combining these with modern machine learning to build systems that are both physically grounded and data-driven.

Before my PhD, I deployed and programmed autonomous mobile robots for Fortune 500 clients at Seegrid. I hold a B.S. in Mechanical Engineering from Columbia University. I'm looking for research engineer roles where physical grounding matters — where simulation meets hardware and systems ship.

Robot Dynamics Manipulation Sim2Real Active Perception MuJoCo ROS 1 & 2 Python / PyTorch C++ MATLAB
Presidential Fellow
Worcester Polytechnic Institute
NRT FORW-RD Fellow
National Science Foundation (NSF)
Glenn Yee Award Recipient
Worcester Polytechnic Institute
IEEE RAS President
Worcester Polytechnic Institute
Kings Crown Leadership Award
Columbia University
Research

Current work.

ISRR 2026 · Submitted
Multi-Modal Non-Prehensile Estimation of Physical Parameters via Press-and-Pull Tipping
A framework that recovers mass, CoM height, and surface friction without a grasp by sequencing two complementary interaction modes — tipping to isolate inertial parameters cleanly, then sliding to resolve friction. Validated on an ABB IRB120 across rigid prisms, irregular consumer items, and low-friction contacts with no prior knowledge of geometry, mass, or friction.
IEEE IROS 2026 · Under Review
Before the Tipping Point: Force-Guided Active Perception for Shape-Agnostic Estimation of 3D Centers of Mass
A robot manipulator estimates CoM height and mass from a single sub-critical tipping interaction — no object geometry required. Using quasistatic push–retract cycles and force-angle measurements, the method recovers inertial parameters with under 5% relative error across objects of varying shape, mass, and contact properties.
IEEE CASE 2025
CoM Estimation with Onboard Sensing & Pushing for Mobile Robots
A framework for estimating the 3D center of mass of unknown payloads using a holonomic mobile robot. Combines active pushing, onboard sensing, and model-based estimation — no prior knowledge of the object required.
IEEE IROS 2023
Predicting Center of Mass by Iterative Pushing
Iterative pushing strategy to infer object CoM for transportation and manipulation tasks. Validated on physical hardware with a robot arm, demonstrating robust estimation across payload geometries.

Also presented at New England Manipulation Symposium 2025 — oral presentation of the CASE 2025 work.

Projects

Built over time.

Selected independent and course projects, now surfaced as visual snapshots with links to code, reports, and deeper writeups where available.

Behavior cloning bin-sorting robot simulation
2026 Case Study

When Behavior Cloning Cheats

A simulated bin-sorting robot revealed how imitation policies can memorize shortcuts instead of grounding actions in scene geometry.

Behavior Cloning Robot Learning Simulation
MuJoCo RL Dynamics
2026 In Progress

Online Parameter Estimation with RL

A MuJoCo environment where a robot arm learns to estimate unknown object mass and inertia during manipulation.

MuJoCo RL PyTorch
Multi-Robot Graph Search
2023 Robotics

OddRugs — Dynamic Robot Distribution

A graph-based multi-robot task allocation system for distributing robots around a manipulated payload in real time.

Python Multi-Robot Graph Search
Constraint-based haptic interaction simulation screenshot
2023 Simulation

Constraint-Based 3D Haptic Interaction

A low-level OpenGL haptics simulation that models contact forces and physical constraints for real-time tactile feedback.

C++ Haptics OpenGL
Robotic pick-and-place simulation
2022 Course Project

Deep RL for Robotic Pick-and-Place

A DQN controller trained in simulation to drive grasp selection for a Franka robotic arm pick-and-place task.

Deep RL DQN Simulation
Tensegrity Tumbleweed rover prototype
2019 Capstone

Tensegrity Tumbleweed Rover

A Columbia capstone rover prototype using tensile integrity to survive impacts without a rigid outer shell.

Mechanical Design SolidWorks Prototyping
Experience

Where I've worked.

Aug 2021
— Present
Doctoral Research Assistant
Worcester Polytechnic Institute
  • Developed 3D CoM estimation framework combining active perception, non-prehensile pushing, and model-based control for arbitrary payloads — published at IROS 2023 and CASE 2025.
  • Built high-fidelity simulation pipeline in MuJoCo; extending with RL-based learned dynamics for generalization.
  • Designed graph-based optimal grasp configuration planner using modified BFS.
  • Mentored undergraduate researchers; led outreach for NSF FORW-RD and IEEE RAS.
Nov 2019
— Aug 2021
Implementation Engineer
Seegrid · Pittsburgh, PA
  • Programmed and deployed AMRs for Fortune 500 clients including Amazon, GM, and UPS.
  • Designed fleet pathing logic for 20+ robot installations to maximize throughput.
  • Built Python tooling that cut per-site deployment time by ~20 hours.
Sep 2019
— Nov 2019
Robotic Design Engineer
Avar Robotics · New York, NY
  • Modeled next-generation inventory-sorting robot in SolidWorks with FEA validation.
  • Prototyped tetherless mobile redesign enabling infrastructure-free operation.
Skills

What I work with.

Robotics
  • Robot Dynamics Modeling
  • Sim2Real Transfer
  • Manipulation Planning
  • Parameter Estimation
  • Model-Based Control
  • Active Perception
  • Motion Planning
  • Multi-Robot Systems
Software & Tools
  • Python (NumPy, SciPy, PyTorch, OpenCV)
  • MuJoCo
  • ROS 1 & 2
  • C++
  • MoveIt
  • Gazebo
  • MATLAB
  • Git / Linux
ML / Learning
  • Reinforcement Learning
  • Learned Dynamics Models
  • Teleoperation
  • Gesture Recognition & Control
  • Optimization-Based Estimation
Contact

Get in touch.

I'm actively looking for research engineer and applied scientist roles in robotics and robot learning, based in Boston. Open to relocation for the right opportunity.