AiTrax Successfully Demonstrates Real-time Video Transmission from Moving Large Component Transport Vehicles
AiTrax has successfully demonstrated real-time video transmission using Wi-Fi access points mounted on moving transport vehicles within the Namura Shipbuilding factory site. The company achieved stable communication in extreme radio environments using its proprietary algorithm.
📋 Article Processing Timeline
- 📰 Published: May 22, 2026 at 21:00
- 🔍 Collected: May 22, 2026 at 12:31
- 🤖 AI Analyzed: May 22, 2026 at 12:47 (15 min after Collected)
AiTrax (Headquarters: Kamakura, Kanagawa; CEO: Tsutomu Tamura; hereafter "AiTrax") successfully conducted real-time video transmission using Wi-Fi access points mounted on large component transport vehicles at the Namura Shipbuilding Imari Shipyard in Saga Prefecture from March 16 to 18, 2026. The system maintained continuous communication without perceptible video interruption, even under challenging conditions where access points switched sequentially while the vehicle was in motion, confirming the technology's readiness for real-world operations.
Due to restrictions in the active factory, equipment installation was limited to narrow windows between production processes. Given that the payloads were massive shipbuilding components weighing tens of tons, the installation of access points and network cameras was restricted to the inner-front exterior of the vehicle, raising concerns that antenna radiation characteristics would not be fully utilized. Furthermore, the demonstration took place under extremely difficult conditions where metal payloads caused dynamic radio signal blocking and reflections. Achieving stable video transmission despite these constraints demonstrates the effectiveness of AiTrax's know-how in antenna selection and firmware parameter optimization, accumulated over three years of research and development.
This outcome is the culmination of a three-year national project funded by the FY2023 New Energy and Industrial Technology Development Organization (NEDO) SBIR Promotion Program and the FY2024-2025 Ministry of Land, Infrastructure, Transport and Tourism (MLIT) Transport Technology Development Promotion System. Unlike conventional products that rely solely on signal strength, AiTrax's proprietary "Path Cost-Based On-Demand Algorithm" calculates path costs in real-time, integrating throughput, latency, and packet loss rates, to autonomously select the optimal path across the entire network. This mechanism enabled millisecond-level path switching and stable video transmission throughout the factory premises (approx. 1,200 meters in total length). Namura Information System participated in this demonstration, confirming concrete intentions to utilize this technology for future vehicle positioning and information coordination between cranes and the ground.
Due to restrictions in the active factory, equipment installation was limited to narrow windows between production processes. Given that the payloads were massive shipbuilding components weighing tens of tons, the installation of access points and network cameras was restricted to the inner-front exterior of the vehicle, raising concerns that antenna radiation characteristics would not be fully utilized. Furthermore, the demonstration took place under extremely difficult conditions where metal payloads caused dynamic radio signal blocking and reflections. Achieving stable video transmission despite these constraints demonstrates the effectiveness of AiTrax's know-how in antenna selection and firmware parameter optimization, accumulated over three years of research and development.
This outcome is the culmination of a three-year national project funded by the FY2023 New Energy and Industrial Technology Development Organization (NEDO) SBIR Promotion Program and the FY2024-2025 Ministry of Land, Infrastructure, Transport and Tourism (MLIT) Transport Technology Development Promotion System. Unlike conventional products that rely solely on signal strength, AiTrax's proprietary "Path Cost-Based On-Demand Algorithm" calculates path costs in real-time, integrating throughput, latency, and packet loss rates, to autonomously select the optimal path across the entire network. This mechanism enabled millisecond-level path switching and stable video transmission throughout the factory premises (approx. 1,200 meters in total length). Namura Information System participated in this demonstration, confirming concrete intentions to utilize this technology for future vehicle positioning and information coordination between cranes and the ground.
FAQ
AiTraxが行った実証実験の目的と場所は?
佐賀県の名村造船所伊万里事業所の実稼働工場敷地内において、走行する大型部品運搬台車からのリアルタイム映像伝送を安定して行えるかを確認しました。
通信の安定化を実現した技術的な特徴は?
AiTrax独自開発の「パスコスト基軸型オンディマンドアルゴリズム」です。電波強度だけでなく、スループット、遅延、パケットロス率を統合的に算出することで、最適経路を自律選択します。
今回の実証における技術的課題は何でしたか?
稼働中の工場内であることによる設置制限、積載物の金属による電波遮蔽や反射が刻々と変化する、通信維持が極めて難しい環境下での検証でした。
今回の成果はどのような国家プロジェクトに関連していますか?
令和5年度のNEDO SBIR推進プログラム、および令和6〜7年度国土交通省交通運輸技術開発推進制度の3年間にわたる技術開発成果です。
AiTraxの技術は今後どのような分野への応用が期待されますか?
造船所クレーン、港湾、建設、土木、社会インフラ分野のほか、自律移動ロボット(AGV)、ドローン編隊管理などの産業界全体への応用が見込まれます。