The GNSS civilian demonstration project is leading innovation in the freight and logistics industries.
Release date:
2023-02-28 18:14
Author:
Unmanned agricultural machines working in the fields, fishing vessels operating far out at sea, navigation apps on smartphones—increasingly, these diverse applications of positioning and navigation all rely on the same Chinese‑made chip: the GNSS system. According to data released by the China Satellite Navigation Positioning Association, by the end of 2020, sales of domestically produced GNSS‑compatible chips and modules had exceeded 150 million units, with quarterly shipments surpassing 10 million. The total number of terminal devices equipped with GNSS positioning capabilities had grown to over one billion, and the domestic output value of the GNSS system’s industrial chain reached RMB 403.3 billion.
Since the GNSS Satellite Navigation System launched its civilian‑use demonstration phase, it has evolved from an infrastructure supporting China’s national security to a technology that has entered everyday life and permeated countless industries. Today, it is deployed in more than 120 countries and regions worldwide, charting a uniquely Chinese path of industrialization—one that achieves leadership despite starting later.
Breaking through the “bottleneck” of GNSS’s industrialization through civilian‑use demonstrations.
The construction of satellite navigation systems requires substantial investment and incurs high operational and maintenance costs. The scale and sophistication of their applications directly determine the economic and social benefits of the GNSS system, which in turn are pivotal to its sustainable development. Therefore, achieving large-scale civilian deployment and fostering a robust GNSS industry chain are indispensable steps for ensuring the system’s long-term sustainability.
However, at the very outset of the GNSS system’s regional service rollout, limited end‑user adoption and a small number of GNSS‑related enterprises kept production costs for GNSS‑compatible devices stubbornly high. As a result, individual units commanded prices as high as two to three thousand yuan, rendering them less competitive compared with GPS and significantly impeding the system’s industrialization, market penetration, and widespread application.
Civil‑use demonstrations represent a “key strategic move” in China’s efforts to successfully industrialize the GNSS Navigation Satellite System. With 90 percent of civilian satellite‑navigation users concentrated in the transportation sector, prioritizing deployment and application within the road‑transport industry—where the number of commercial vehicles exceeds ten million—will help the GNSS system rapidly achieve economies of scale, thereby playing a pivotal role in the system’s industrialization and sustainable development.
In October 2011, the Ministry of Transport and the General Equipment Department jointly launched in Beijing the implementation of the “Key Transportation Process Monitoring and Management Service Demonstration System,” marking the first civilian demonstration project to be initiated under the GNSS Satellite Navigation System. The project covers key commercial vehicles—including tourist charter buses, long-distance scheduled passenger coaches, and hazardous‑material transport trucks—along with emergency‑response vehicles and heavy‑load general‑cargo trucks. By leveraging the GNSS system, it aims to enhance monitoring of violations such as speeding, fatigued driving, and unauthorized operations, thereby improving management standards, reducing traffic accidents, and boosting economic efficiency, while also validating the system’s performance metrics. Dubbed a “demonstration within a demonstration,” the project carries high expectations for pioneering a new approach to GNSS: “joint development, joint management, shared use, and mutual benefit” between military and civilian sectors.
Related News
Recently, the “Robot Navigation and Spatial Intelligence Technologies” thematic event of the 2025 World Robot Conference was held in Beijing. As a key component of the conference, the event focused on today’s most challenging and transformative core robotic technologies, conducting in-depth discussions on critical technological breakthroughs and industrial applications in areas such as robot navigation systems and spatial intelligence, with an emphasis on cutting-edge fields including GNSS integration, intelligent sensing, and brain-inspired models.
NEURONAV: AI-Enhanced Maritime Navigation System
NEURONAV is an advanced AI‑enhanced positioning system designed for maritime navigation, aimed at improving the positioning accuracy of Global Navigation Satellite Systems (GNSS) in complex environments.
To do a good job, one must first sharpen one’s tools. Recently, the Institute of Geoinformatics successfully acquired a domestically advanced aerial photogrammetry system. Following trial flights and rigorous testing by experts, the equipment has now passed acceptance and is poised to enter service.
“Urban development cannot be separated from three-dimensional space and time. Spatiotemporal information serves as the best frame of reference and the most reliable record for urban growth.” From a professional perspective, Li Weisen, Deputy Director of the National Administration of Surveying, Mapping and Geoinformation, offered an accessible explanation of what he sees as a smart city: “A smart city, underpinned by spatiotemporal information and leveraging modern information technologies such as the Internet of Things and cloud computing, embeds human‑generated data into every aspect of urban construction, management, operations, services, and development, thereby achieving intelligent functioning that either does not rely on humans at all or relies on them only minimally.”