Project Hub /Test & Measurement Instrumentation/Sensors & Signal Measurement Tools/Autonomous High-Speed Swerving Vehicle using the VL53L5CX Sensor
Autonomous High-Speed Swerving Vehicle using the VL53L5CX Sensor
Advanced
RASPBERRY PI
Project Specific
6 – 12 Hours
Partial Kit

Autonomous High-Speed Swerving Vehicle using the VL53L5CX Sensor

An autonomous high-speed vehicle that uses a VL53L5CX 8x8 multizone LiDAR sensor and an S-curve swerving algorithm to continuously navigate around obstacles without stopping.

Originally published on CircuitDigest
View original tutorial
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Parts You'll Need

This project is sourced from another site, not written by us — this list is our best match of their components against what we stock, not a verified bill of materials. Always check the original blog (linked above) for the actual parts list before buying.

We don't carry yet: Laser / LiDAR / ToF Sensor
AA / AAA Battery + Holder

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How It Works

Why Build This

Design and implement high-speed real-time navigation algorithms mimicking industrial Automated Guided Vehicles (AGVs) and Autonomous Mobile Robots (AMRs).
Gain hands-on experience integrating high-bandwidth multizone Time-of-Flight sensors with single-board computers for spatial mapping.
Master the power electronics and signal isolation required to drive high-current DC motors alongside sensitive digital logic boards.

Real-World Application

AGVs and AMRs in warehouses, autonomous delivery robots, and obstacle-avoidance systems for autonomous ground vehicles.

Skills You'll Learn

Time-of-Flight sensor integration
multizone spatial mapping
Python computer vision processing
motor driver H-bridge control
DC-DC power regulation
high-current power distribution
autonomous navigation algorithms

Safety Precautions

Ensure proper separation of high-voltage (12V) motor power rails and low-voltage (5V) logic rails using a common ground and a master DPDT kill switch to prevent system crashes and short circuits.

Technology Tags

VL53L5CX
LIDAR
TIME-OF-FLIGHT
PYTHON
OPENCV
RASPBERRY PI
PWM MOTOR CONTROL
S-CURVE NAVIGATION
ROBOTICS

Frequently Asked Questions

The Raspberry Pi 5 operates on 5V logic and will be damaged if connected directly to the 12V battery pack. The 30W 10A DC-DC buck converter safely steps down the 12V supply to the required 5V level for the board.
The DPDT switch acts as a master power kill switch, allowing you to simultaneously and completely cut off the high-voltage 12V motor power rail and the low-voltage logic rail to prevent short circuits and system crashes.
Unlike basic binary distance sensors that only trigger a stop when something is too close, the 8x8 multizone VL53L5CX provides a spatial grid of measurements. This allows the Raspberry Pi 5 to calculate an S-curve trajectory around obstacles on the fly.

Gallery

This page is part of Kitkraft's Project Hub — a curated collection of electronics & robotics projects gathered from the maker community to help students and hobbyists discover and learn to build. Kitkraft does not claim authorship of the original project, and makes no representation as to the accuracy, completeness or safety of third-party source material. The summary and "How It Works" explanation above are AI-generated, rewritten with reference to the original tutorial — not a reproduction of it. Full credit and a direct link to the original source are provided above. If you're the original creator and have a concern about how your work is represented here, please contact us and we'll address it promptly.

Kitkraft Project Hub — curated from the maker community, credited at the source.
PRJ-01538