Enquire Now
2026 Autonomous Vehicle Projects · Perception · Fusion · Planning · CARLA · ROS2

Autonomous Vehicle Projects

Best final-year topics on self-driving systems — object & lane detection, LiDAR–camera fusion, path planning, SLAM, CARLA simulation and ROS2 pipelines for BE, BTech and MTech students.

60+
AV Topics
6
Core Domains
2026
Simulation Ready
Perception Sensor Fusion Planning SLAM / Localization CARLA / Simulation Control · ROS2

Autonomous Driving Projects

Autonomous Vehicle Projects — Perception, Planning & Simulation

Autonomous vehicles combine computer vision, sensor fusion, localization, motion planning and control. Final-year projects that implement detection/lane modules, fuse LiDAR with cameras, plan paths in simulation, or run ROS2 stacks produce strong, demonstrable results.

Below are 60+ topics across perception, fusion, planning, SLAM, CARLA simulation and control/ROS2, with tools used in research and industry (CARLA, ROS2, YOLO, OpenCV, PCL, PyTorch).

CARLA ROS / ROS2 YOLO / Detectron OpenCV PyTorch PCL / Point Clouds
# Autonomous Vehicle Project Topic Tools Used
👁️ Perception — Detection · Segmentation · Lanes · Signs
01PercReal-Time Vehicle and Pedestrian Detection for AVYOLO / Detectron, OpenCV, KITTI
02PercLane Detection and Tracking with Classical + Deep MethodsOpenCV, CNN, CARLA / video
03PercSemantic Segmentation of Road Scenes (Cityscapes-style)DeepLab / SegFormer, PyTorch
04PercTraffic Sign and Traffic Light RecognitionYOLO / CNN, custom or GTSRB
05PercDrivable Area / Free-Space SegmentationSeg models, OpenCV post-process
06PercMonocular Depth Estimation for Obstacle AwarenessMiDaS / DepthAnything, PyTorch
07PercMulti-Object Tracking (MOT) for Vehicles and PedestriansSORT / DeepSORT / ByteTrack
08Perc3D Object Detection from Camera (Pseudo-LiDAR Concepts)Depth + 2D detect, KITTI eval
09PercNight / Adverse Weather Detection Robustness StudyAugmentation, YOLO, metrics
10PercBird’s-Eye-View (BEV) Representation from CamerasIPM / BEV models, PyTorch
📡 Sensor Fusion — LiDAR · Camera · Radar
11FuseLiDAR Point Cloud Object Detection (PointPillars-style)PCL / Open3D, PyTorch, KITTI
12FuseCamera–LiDAR Early / Late Fusion for DetectionCalibration, YOLO + PCL, KITTI
13FuseOccupancy Grid Mapping from LiDAR ScansPCL, grid mapping, ROS optional
14FuseSensor Calibration: Camera Intrinsic / Extrinsic + LiDAROpenCV, checkerboard, target
15FuseMulti-Sensor Tracking with Kalman / UKF FusionFilterPy / custom, detections
16FuseRadar–Camera Fusion for All-Weather Perception (Concepts)Simulated / public radar data
17FusePoint Cloud Segmentation and Clustering for ObstaclesPCL Euclidean / RANSAC
18FuseTemporal Fusion: Multi-Frame Detection ConsistencyTracking, NMS over time
🗺️ Path Planning & Decision Making
19PlanA* / Hybrid A* Path Planning in Occupancy GridsPython / C++, grid maps
20PlanRRT / RRT* Motion Planning for Non-Holonomic VehiclesOMPL concepts, custom impl
21PlanLattice / Sampling-Based Local PlannerCustom planner, cost maps
22PlanBehaviour Planning: Lane Change and Intersection LogicFSM / behaviour trees, CARLA
23PlanModel Predictive Control (MPC) for Trajectory TrackingCasADi / CVXPY, vehicle model
24PlanSpeed Profile Optimisation with Comfort ConstraintsOptimisation, longitudinal model
25PlanObstacle Avoidance with Dynamic ObjectsPrediction + local planner
26PlanGlobal Route Planning on OpenStreetMap-style GraphsNetworkX / osmnx concepts
27PlanCostmap Generation from Perception OutputsOccupancy + inflation layers
📍 SLAM & Localization
28SLAMVisual Odometry / Visual SLAM PipelineOpenCV, ORB-SLAM concepts
29SLAMLiDAR Odometry and Mapping (LOAM-style Concepts)PCL, scan matching
30SLAMGNSS + IMU + Wheel Odometry Fusion for LocalizationEKF / UKF, ROS localization
31SLAMMap Matching and Localization in Prior MapsNDT / ICP, HD map concepts
32SLAMLoop Closure Detection for Mapping ConsistencyBag matching, pose graph
33SLAMParticle Filter Localization in Known MapsAMCL concepts, ROS2
🖥️ Simulation — CARLA · Scenario Testing
34SimCARLA-Based Autonomous Driving Agent (Rule or RL)CARLA, Python API
35SimScenario Generation and Evaluation in CARLACARLA scenarios, metrics
36SimSensor Simulation: Camera / LiDAR Data Collection PipelineCARLA sensors, recording
37SimClosed-Loop Testing of Perception + Planning StackCARLA, ROS2 bridge optional
38SimTraffic Scenario: Intersection Handling and Yield LogicCARLA traffic manager
39SimWeather and Lighting Robustness in SimulationCARLA weather API, detect
40SimBenchmark Suite: Success Rate, Collision, Route CompletionCARLA leaderboard-style metrics
🎛️ Control · ROS2 · Systems Integration
41CtrlPure Pursuit / Stanley Controller for Path TrackingPython / C++, kinematic model
42CtrlLongitudinal Control: PID Speed / ACC ConceptsPID, vehicle dynamics simple
43CtrlROS2 Perception Node Pipeline (Camera → Detect → Publish)ROS2, OpenCV, YOLO
44CtrlROS2 Navigation Stack Concepts for Differential / AckermannNav2 concepts, costmaps
45CtrlMessage Synchronisation and TF Transforms in ROS2ROS2, message_filters, tf2
46CtrlSafety Layer: Collision Check and Emergency Stop LogicCustom, costmap / distance
47CtrlHardware-in-the-Loop Concepts with Embedded ControllersJetson / MCU, CAN concepts
🧠 Learning-Based & End-to-End Approaches
48LearnImitation Learning for Lane Following in CARLACARLA, behavioural cloning
49LearnEnd-to-End Steering Prediction from Front CameraCNN, Udacity / CARLA data
50LearnReinforcement Learning Agent for Simple AV TasksCARLA RL, Stable-Baselines
51LearnDomain Adaptation: Sim-to-Real for Detection ModelsCARLA → real images, DA methods
52LearnUncertainty Estimation in Perception OutputsMC Dropout / ensembles, YOLO
📊 Datasets · Evaluation · Safety
53EvalKITTI / nuScenes Evaluation Pipeline for DetectionOfficial eval scripts, mAP
54EvalLane Detection Metrics (F1, IoU) and VisualisationCustom metrics, OpenCV
55EvalSafety Metrics: Time-to-Collision, Minimum DistanceTrajectory analysis, CARLA
56EvalAblation Study: Component Contribution in Modular StackControlled experiments
57EvalDataset Curation and Annotation Workflow for AVLabel tools, guidelines
🔬 Applied & Research-Oriented Topics
58AppliedParking Slot Detection and Automated Parking ConceptsVision / LiDAR, path planner
59AppliedV2X / Infrastructure-Assisted Perception ConceptsSimulated messages, fusion
60AppliedHuman–AV Interaction: Intention Prediction for PedestriansPose / trajectory models
61ResearchScalable Scenario Testing Framework DesignCARLA, scenario DSL
62ResearchFailure Mode Analysis of Perception in Edge CasesError taxonomy, datasets
63ResearchReproducible AV Experiment Protocol for Student ProjectsConfigs, seeds, logging
64ResearchComparative Study: Camera-Only vs Camera+LiDAR StacksSame scenes, metrics
65ResearchComfort-Oriented Trajectory Generation BenchmarkJerk/acceleration metrics

Topics use widely available tools (CARLA, ROS2, YOLO, OpenCV, PCL) and public datasets (KITTI, Cityscapes concepts). Contact us for reference material, simulation/perception code, evaluation setup, university-format report, PPT and viva Q&A for any topic above.

Why Choose Us for Autonomous Vehicle Projects?

Bangalore-based guidance for BE, BTech and MTech students working on perception, planning and CARLA-based systems.

Perception

Detection, lanes, segmentation and tracking with YOLO, OpenCV and clear metrics on standard datasets.

Sensor Fusion

LiDAR–camera fusion, occupancy grids and multi-sensor tracking with PCL and calibration pipelines.

Planning & Control

A*, RRT, MPC and pure pursuit with costmaps and comfort-aware trajectory design.

CARLA Simulation

Closed-loop agents, scenario testing and sensor data collection in the CARLA simulator.

Frequently Asked Questions — Autonomous Vehicle Projects

Top topics include object and lane detection, LiDAR–camera fusion, path planning (A*, RRT, MPC), SLAM localization, CARLA-based agents and scenarios, ROS2 perception/navigation pipelines, and evaluation with safety metrics.
CARLA simulator, ROS / ROS2, OpenCV, YOLO / Detectron, PyTorch / TensorFlow, Point Cloud Library (PCL), Autoware concepts, Gazebo optional, and datasets such as KITTI and Cityscapes-style data.
Yes. Packages include reference material, simulation or perception code, evaluation metrics, demo notes, university-format report, PPT and viva Q&A covering architecture, sensors and results.
Modular stacks separate perception, localization, planning and control with explicit interfaces. End-to-end learning maps sensors directly to controls. Many student projects focus on modular components (detection, fusion, planning), which are easier to evaluate and debug.