Apan Dastider, PhD
ROBOTICS ENTHUSIASIST | RESEARCHER IN ROBOTIC LEARNING | AI-ROBOTICS ALGORITHM DEVELOPER
ROBOTICS ENTHUSIASIST | RESEARCHER IN ROBOTIC LEARNING | AI-ROBOTICS ALGORITHM DEVELOPER
“Every brilliant experiment, like every great work of art, starts with an act of imagination.” – Jonah Lehrer
HIGHLIGHTS : Joined Wayne State University as a Tenure-track Assistant Professor
I have joined Division of Engineering Technology, Wayne State University as a Tenure-track Assistant Professor. My research focus will be human-robot interaction, knowledge distillation among heterogeneous domains and intelligent robot control with Gen AI. I have completed my PhD at the department of Electrical and Computer Engineering in University of Central Florida. I have been working as a Graduate researcher in Autonomous Robotic Computing Lab where our research largely concentrates on developing and optimizing robotic learning algorithms with an aim to dynamically adapt on real-time with uncontrolled environmental non-stationarities. Particularly, I am more focused on state-of-the-art GenAI algorithms for autonomous robotic motion synthesis and introducing low-dimensional graph-centric geometric manifold representation of high dimensional robotic state-space for smooth motion planning and dynamic adaptability in research-grade redundant robotic manipulators. My research interests also span over incorporating Deep Reinforcement Learning in non-parametric space for improving decision making skills. In short, my research goal is to create a fusion of state-of-the-art generative capability of AI with classic robotic control algorithms.
Email | Google Scholar | LinkedIn | Resume
UNIVERSITY OF CENTRAL FLORIDA
PH.D. in ELECTRICAL ENGINEERING [AUG, 2019 - April, 2025]
Research : Stable Diffusion Model for Robotic Motion Planning, Linearized Computation Efficient Motion Planning Algorithm, Robotic Control with Geometric Manifold Learning and Deep-Autoencoding, Non-Parametric Deep Reinforcement Learning
Advisor : Dr. Mingjie Lin
Roles : Graduate Research Assistant, Graduate Teaching Assistant, Graduate Teaching Associate
Courses : Autonomous Robotics Systems, Machine Learning, Design and Analysis of Algorithms, Advanced Artificial Intelligence, Adaptive Control, Robots, Agents, and Humans, 3D Computer Vision, Introduction to Neural Networks, Image Processing
MS in Electrical Engineering [Aug, 2019 - Dec, 2021]
GPA : 3.98/4.00
BANGLADESH UNIVERSITY OF ENGINEERING AND TECHNOLOGY
BACHELORS IN ELECTRICAL AND ELECTRONICS ENGINEERING [May 2012 – Feb 2017]
Research : Embedded System Design for Motorized Wheelchair, Autonomous System Design
APEX : Collision free dual arm manipulation by Generative Artificial Intelligence Models [Demo ]
o Simplifying real-world complex dual-arm manipulation tasks by abstracting them simple vector alignment tasks between different objects
o Utilizing a latent stable diffusion models for creating various dual arm manipulation trajectories
o Integrating obstacle-guidance technique in the diffusion models for collision free trajectories with environmental obstacles in the workspace
Online Adjustment : Sub-optimal Trajectory Refinement Through Linearized Value Function Computation [ Demo ]
o Achieving dynamic adaptability in non-stationary environment through linear computation efficient value function computation
o Refinement of Sub-optimal action sequences from DDP or iLQR for evolving target objective function through linearized feedback of adjusted exponentiated value function
o Computation of distribution shift through KL divergence as desirability function and Optimal Action adjustment through feeding differentiable desirability function values computed in linearized computation efficient mechanisms
Robotic Motion Planning through Low-dimensional Manifold Building [ Demo ]
1. Amorphous Obstacle Avoidance:
o Proposed a obstacle avoidance algorithm where the 3D geometry of obstacles can reshape at any instance
o Developed a geometrical manifold learning algorithm for introducing densely connected 2-D graph of low-dimensional points
o Smooth Motion Planning over the connected graph and deep-autoencoding for two-way mapping between high-dimensional robotic state and low-dimensional manifold representation
2. Reactive Whole-Body Obstacle Avoidance for Collision-Free Human-Robot Interaction [ Demo ]
o Topological low-dimensional Manifold Building with dual arm joint pose high dimensional state space
o Manipulation over the connected collision-free points for safer robotic motion planning and location reaching smoothly
o Optimal reactive sensor placement on robotic manipulator's mechanical structure for the best possible occlusion detection
3. Multi-Robot Skill Learning from a unified manifold representation in real-time [Demo]
o Learning multiple robotic skills -- obstacle avoidance and interception of flying targets, adaptively in real-time through a 2D graph traversing
o Leveraging an innovative diffusion map based manifold learning algorithm for transforming high-dimensional robotic state-space to low-dimensional latent space representation
o Extended Kalman Filter (EKF) for target location estimation for moving target for accurate interception
Non-parametric Deep Reinforcement Learning
1. Strategic Retreats for Learning sequence of Optimal Control Policies [ Website ]
o Developed non-parametric representation of stochastic policy gradients and exploited the blessings of vector-space properties of RKHS for incorporating a check-point detection method
o Proposed a Gradient Similarity check method for pre-mature action abortion and only executing the optimal part of the action sequence
o Generating sequence of control policies for handling bounded non-stationarity and maximizing utility in RL framework
2. RKHS embeddings as priors in Bayesian Policy Gradients [ Demo ]
o Enabling a robotic agent to incrementally bias its current learning process through utilizing prior relevant interactions by following Bayesian Exploration Strategy
o Representation of Prior distributions in a tractable and linearly complex kernel space, RKHS
o Using a dot product based similarity metric to prioritize past-task transitions to jump-start current learning process
Learning Safe locomotion by bio-robots with deep Reinforcement Learning [Course : Robots, Agents and Humans]
Fusion of Classical Control Theories with Reinforcement Learning : Address the 'sim-to-real' gap through introducing MRAC system in real-world agents with learned knowledge from simulated platforms n deep Reinforcement Learning framework. [Course : Adaptive Control]
Learn inverse kinematics of a redundant robotic manipulators through using Deep Neural Networks [Course : Machine Learning]
(Surge Engineering, Dhaka, Bangladesh)
Development of Software Tools, Control Circuitry and Embedded Systems for a locally developed low-cost thumbstick-controlled motorized wheelchair. [ Demo ]
Human-Robot Knowledge Distillation using a Cycle-VAE and Artificial Human Behavior Transformer
Parcel Box stacking task completion by trajectory generation from Stable Diffusion Models
Reactive Trajectory Optimization technique to handle non-stationary objective function
Multi-Skill Learning with RETRO
Multi-Robot Skill Learning from a unified manifold representation in real-time
Multi-Robot Skill Learning from a unified manifold representation in real-time
Obstacle Avoidance through Manifold Learning and GMM based replanning
Reactive Whole-Body Obstacle Avoidance for Collision-Free Human-Robot Interaction
Strategic Retreats for Learning sequence of Optimal Control Policies
ARXIV PRE-PRINT :
Reactive Whole-Body Obstacle Avoidance for Collision-Free Human-Robot Interaction with Topological Manifold Learning. Apan Dastider, Mingjie Lin. arxiv preprint | website
Cross-Embodiment Robotic Manipulation Synthesis via Guided Demonstrations through CycleVAE and Human Behavior Transformer. Apan Dastider, Hao Fang, Mingjie Lin. Under Review in 2025 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS). arxiv preprint
ACCEPTED :
Unified Control Framework for Real-Time Interception and Obstacle Avoidance of Fast-Moving Objects with Diffusion Variational Autoencoder. Apan Dastider, Hao Fang, Mingjie Lin. 2024 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS), UAE, 2024. arxiv preprint | website
APEX: Ambidextrous Dual-Arm Robotic Manipulation Using Collision-Free Generative Diffusion Models. Apan Dastider, Hao Fang, Mingjie Lin. 2024 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS), UAE, 2024. website
RETRO: Reactive Trajectory Optimization for Real-Time Robot Motion Planning in Dynamic Environments. Apan Dastider, Hao Fang, Mingjie Lin. Accepted in 2024 IEEE International Conference on Robotics and Automation (ICRA) website | arxiv preprint
Dynamically Avoiding Amorphous Obstacles with Topological Manifold Learning and Deep Autoencoding. Apan Dastider, Mingjie Lin. (accepted in IROS 2023) demo
Non-Parametric Stochastic Policy Gradient with Strategic Retreat for Non-Stationary Environment. Apan Dastider, Mingjie Lin. Accepted in 2022 IEEE 18th International Conference on Automation Science and Engineering (CASE), Mexico City, Mexico. (in press) arxiv preprint | website
Learning Adaptive Control in Dynamic Environments using Reproducing Kernel Priors with Bayesian Policy Gradients. A. Dastider, S.J.A Raza, M. Lin. Proceedings of the 2021 37th Annual ACM/SIGAPP Symposium on Applied Computing. Association for Computing Machinery, New York, NY, USA. (In Press) website/video demo
Safe Locomotion Within Confined Workspace using Deep Reinforcement Learning. A. Dastider, S.J.A Raza, M. Lin. 2021 Fifth IEEE International Conference on Robotic Computing (IRC), Taiwan. paper
Survivable Robotic Control through Guided Bayesian Policy Search with Deep Reinforcement Learning. S.J.A Raza, A. Dastider, M. Lin. 2021 IEEE 17th International Conference on Automation Science and Engineering (CASE), Lyon, France. paper | website/video demo
Survivable Hyper-Redundant Robotic Arm with Bayesian Policy Morphing. S.J.A Raza, A. Dastider, M. Lin. 2020 16th IEEE-RAS International Conference on Automation Science and Engineering (CASE), Hong Kong. paper | website
Developmentally Synthesizing Earthworm-Like Locomotion Gaits with Bayesian-Augmented DDPG. S.J.A Raza, A. Dastider, M. Lin. 2020 16th IEEE-RAS International Conference on Automation Science and Engineering (CASE), Hong Kong. paper | website
I am always open to do collaboration and discuss about our project ideas. For any information and details, please contact me. I look forward to hear from you.