Open to PhD positions & research collaborations
Robotics · Perception · Deep RL

Hamid Taheri I build learning-based perception and control systems
for intelligent robots and real-world AI.

Working at the intersection of deep reinforcement learning, computer vision, robotics, and production AI — from safe mobile-robot navigation to real-time perception infrastructure.

sensor: LiDAR · 36 beams
policy: active · obstacle-aware
pos [0.00, 0.00] · v 0.00
scroll
11open-source projects
2arXiv preprints
53navbot_ppo stars
Top 0.2%national M.Sc. rank
Research identity

Three threads, one system.

My work spans the full loop of an intelligent machine — sensing the world, learning a policy, and shipping it reliably. These threads reinforce each other.

Learning-based control

Safe navigation and continuous control for mobile robots, trained end-to-end with deep reinforcement learning.

PPODDPGSACROSGazebo

Perception & 3D vision

Object & anomaly detection, OCR, lane and 3D scene understanding — from point clouds to industrial imaging.

PointNet++DGCNNViTYOLOOpenCV

Reliable AI systems

Production-grade ML: GPU inference, backend services, containers and CI/CD that move research into the real world.

TensorRTDockerKubernetesC/C++Linux
Featured research

Published work.

Peer-reviewable contributions in robot navigation and efficient perception. Full text on arXiv.

2024
arXiv · cs.RO
Preprint · Under review

Deep Reinforcement Learning with Enhanced PPO for Safe Mobile Robot Navigation

This study trains a deep reinforcement learning agent to enable a wheeled mobile robot to navigate autonomously and collision-free toward a target in complex, obstacle-rich environments. Using only raw LiDAR observations and the goal pose, a deep neural network maps perception directly to continuous velocity commands. The work compares DDPG and PPO and introduces an enhanced PPO network architecture together with a tailored reward function, validated in both obstacle and obstacle-free Gazebo environments.

Hamid Taheri, Seyed Rasoul Hosseini, Mohammad Ali Nekoui
arXiv:2405.16266 →
2024
arXiv · cs.CV
Preprint · Under review

ENet-21: An Optimized Light CNN Structure for Lane Detection

This study develops an optimized, lightweight CNN for lane detection that combines binary segmentation with Affinity Fields. Lane instances are recovered by clustering the segmentation and affinity outputs, which lets the method handle a varying number of lanes and lane-change scenarios without a fixed lane-count assumption. Using a less complex network than existing approaches, the method is demonstrated on the TuSimple dataset.

Seyed Rasoul Hosseini, Hamid Taheri, Mohammad Teshnehlab
arXiv:2403.19782 →
Selected work

Evidence in code.

Research, perception, and systems work — built, trained, and shipped.

Flagship · Deep RL
Featured work

navbot_ppo

Mapless mobile-robot navigation: deep-RL motion planners — PPO, DDPG, SAC and TD3 — that drive a TurtleBot to a goal from sparse LiDAR and the target pose, with no SLAM and no map.

★ 53GitHub stars
16-DLiDAR state
maplessno SLAM
PPODDPGSACTD3ROSLiDAR
Recent

News & updates.

Mar 2026
Started as Applied AI Software Engineer at amitego Engineering, building VMask — real-time OCR and computer-vision privacy masking for remote desktop sessions.
Nov 2025
Joined PreZero (Schwarz Group) as an AI/ML & Full-Stack Innovation Intern, working on logistics route optimization and predictive container-pickup planning.
Jun 2025
Top Performer at the Audi XL2 DeepRacer reinforcement-learning competition — virtual and on-site autonomous-navigation racing.
Aug 2024
Revised preprints posted: Enhanced-PPO safe navigation (arXiv:2405.16266) and ENet-21 lane detection (arXiv:2403.19782), both under journal review.

Open to PhD opportunities,
research & engineering collaborations.

In robotics, computer vision and intelligent systems. If your lab works on perception-aware autonomy, sim-to-real, or learning-based control — let's talk.