Selected Work

Production systems, research, and selected technical projects.

I design, train, and deploy neural perception systems. As technical owner of three ML/CV systems, I build the models, data pipelines, distributed training, and onboard inference that turn geometric learning into measurable results. My shared calibration-data pipeline streamed 17+ TB of raw logs in a single pass to produce ~600 GB of data for both calibration models.

Industry Systems

PRODUCTION CALIBRATION PORTFOLIO

Neural Sensor Calibration Systems

Two neural calibration systems designed, trained, and deployed end to end: cross-modal attention and camera conditioning for camera–LiDAR geometry, and shared spherical features with circular correlation for cross-LiDAR alignment.

2production systems deployed
2 regionsautomated data collection
~13×training acceleration
SE(3) / SO(3)geometry-aware neural learning
01 · LCCNET · CAMERA ↔ LIDAR
Production · Deployed

Neural Camera–LiDAR Calibration

Designed, trained, and deployed a 6-DoF camera–LiDAR calibration network with dual encoders, camera-conditioned FiLM, and cross-modal attention. On an unseen vehicle, the deployed model reduced rotation error by 95% (2.95° → 0.14°) and reprojection error by 89% (22.4 → 2.4 px).

95%less rotation error · unseen vehicle
89%less reprojection error · unseen vehicle
~100Ktraining frames
~13×training acceleration
LCCNet neural network with dual encoders, camera-conditioned FiLM, cross-modal attention, and rotation/translation heads
NEURAL NETWORK DESIGNFiLM + cross-attention · click to enlarge
02 · LILINET · LIDAR ↔ LIDAR
Production · Deployed

Neural LiDAR–LiDAR Calibration

Built a LiDAR–LiDAR calibration network from scratch with shared spherical encoders, circular azimuth correlation, and sensor-conditioned rotation/translation heads. Deployed the model onboard, reducing fleet rotation error by 63% (0.93° → 0.35°).

63%less fleet rotation error
83%less rotation error · testing
96%evaluated frames improved
~20Ktraining frames
LiLiNet neural network with shared spherical encoders, circular azimuth correlation, sensor conditioning, and task-specific pose heads
GEOMETRIC NEURAL LEARNINGSpherical features + correlation · click to enlarge
03 · IN-CABIN · OCCUPANT PERCEPTION
Integrated · Vehicle Evaluated

In-Cabin Occupant Perception

Front- and rear-seat occupant monitoring built from RTMO detector/keypoint fine-tuning and a ResNet-18 multi-task occupancy/posture network, then integrated with iToF seating position, VLM temporal fusion, and confidence-aware vehicle messaging.

99.3%occupancy F1
95.8%posture Macro-F1
89.2%seat-depth accuracy
1.4 cmstable height MAE
Integrated occupant perception architecture with RTMO detection, posture, iToF seating position, VLM temporal fusion, and vehicle messages
INTEGRATED PERCEPTION SYSTEMSchematic · click to enlarge

Research & Selected Projects

Fast Robot Navigation & Control
Fast Robot Navigation & Control
Embedded Systems & Robotics

Real-time navigation, control, and obstacle avoidance on a resource-constrained embedded robot.

Point Forecasts to Probability Clouds — Probabilistic Electricity Price Forecasting
Point Forecasts to Probability Clouds — Probabilistic Electricity Price Forecasting
Research Project

Generative probabilistic forecasting of day-ahead electricity prices with calibrated uncertainty

Robotic Tool Handler
Robotic Tool Handler
Technical Project

Senior Design Project - ARM Cortex-based robotic system with real-time control

Robot Mapping, Estimation, and Interaction
Robot Mapping, Estimation, and Interaction
Technical Project

Autonomous navigation system with SLAM capabilities for TurtleBot2

LRHPerception - Monocular Real-time Perception for Autonomous Driving
LRHPerception - Monocular Real-time Perception for Autonomous Driving
Research Project

Unified perception pipeline achieving 29 FPS with object tracking, trajectory prediction, road segmentation, and depth estimation

Spatiotemporal-Linear - Universal Multivariate Time Series Forecasting
Spatiotemporal-Linear - Universal Multivariate Time Series Forecasting
Research Project

Novel forecasting model using Residual Neural Networks with Spatial Attention