P‑Dynamics provides a family of modular autonomous ground‑vehicle platforms that share a common chassis, power‑train, and sensor architecture. Customers can configure hardware for applications such as last‑mile delivery, campus transport, industrial inspection, or safety‑critical warning systems using a software‑defined control stack with open CAN/Ethernet/ROS 2 interfaces. The modular approach reduces prototyping cost and time‑to‑market while supporting electric and hybrid power‑train swaps.
Funding
Funding not disclosed
Founders
Product
Problem
Organizations that require autonomous ground vehicles often face fragmented hardware ecosystems and long development timelines, making it difficult to adapt a single platform to diverse mobility, logistics, or safety‑monitoring missions. Existing solutions are typically custom‑built, expensive, and lack the modularity needed for rapid variant creation.
Solution
P‑Dynamics delivers a family of modular autonomous vehicle platforms that share a common UGV‑derived architecture. The L‑Class micromobility platform, scalable UGV series, and electric go‑kart are all built on interchangeable chassis, power‑train, and sensor modules, allowing customers to configure hardware for last‑mile delivery, campus transport, industrial inspection, or safety‑critical warning systems. A software‑defined control stack provides plug‑and‑play autonomy, with APIs for sensor fusion, path planning, and fleet management that can be customized without hardware redesign. Because the core platform is engineered for both electric and hybrid powertrains, it supports rapid power‑system swaps and future‑proof upgrades. The approach reduces prototyping costs, shortens time‑to‑market, and enables OEMs or fleet operators to launch new vehicle variants by reusing validated subsystems.
Target Audience
Primary customers are OEMs, fleet operators, and industrial logistics providers that need adaptable, software‑defined ground vehicles for urban mobility, campus transport, or safety‑monitoring applications.
Features
- Modular chassis and sub‑system architecture that supports quick re‑configuration of body styles and payloads
- Compatibility with both electric and hybrid power‑train modules, including high‑density battery packs and motor controllers
- Open sensor and controller interface layer (CAN, Ethernet, ROS 2) for seamless integration of LiDAR, cameras, radar, and custom payloads
- Autonomous and semi‑autonomous driving stack with perception, localization, and motion‑planning algorithms that can be licensed or customized
- Scalable platform hierarchy ranging from mini UGVs to L‑Class vehicles, enabling shared component libraries across size classes
- Convertible e‑kart architecture allowing low‑cost conversion to suspension‑based or independent‑drive variants
- Autonomous Warning Triangle System (aWTS) that autonomously deploys safety markers in compliance‑critical scenarios
- Licensing model for proprietary control software and optional integration services for system‑level engineering support