Market Context — Why This Technology, Why Now

Global demand for advanced connectivity and autonomous systems is surging, driven by the proliferation of IoT, satellite internet, and smart city initiatives. This creates a critical need for efficient, scalable, and resilient multi-vehicle coordination. Regulatory frameworks are evolving to support drone delivery and autonomous transport, while the space sector is rapidly expanding with mega-constellations. This technology directly addresses these trends by providing a robust, automated solution for complex swarm management, enabling new services and reducing operational overhead across multiple industries.

Key Competitive Advantages
01

Optimizes communication lines flexibly: Dynamically controls communication lines using beamforming and MIMO based on service requirements, reducing the effort and cost of designing custom systems for each service.

02

Significantly reduces operational burden: Automates follower vehicle control by a leader vehicle and autonomous position/attitude control of each vehicle via an onboard processor, substantially easing complex user operations.

03

Ensures exclusive market advantage with robust IP: This patent was registered after overcoming strict examiner objections and comparison with five prior art documents. It secures a long-term exclusive market advantage until 2042.

Market Opportunity
🚀 Space Industry (Satellite Constellations)
$665B–$670B globally (AI est.)
Decreasing launch costs for small satellites and increasing data demand are accelerating the development of interconnected constellations. This technology directly enhances operational efficiency and service quality for these systems.
Satellite constellation operators Spacecraft manufacturers Satellite communication service providers Earth observation data companies
🚁 Drone & UAV (Swarm Control)
$4.0B–$4.5B (AI est.)
Drone applications are expanding across logistics, infrastructure inspection, security, and agriculture. The need for coordinated multi-drone operations and autonomous control is growing, and this technology could drive efficiency in these areas.
Drone logistics providers UAV manufacturers for industrial applications Infrastructure inspection service companies Agricultural drone solution providers
🚗 Autonomous Driving & Next-Gen Mobility
$1.05T–$1.1T globally (AI est.)
Platooning for autonomous vehicles could improve traffic efficiency and reduce energy consumption. This technology's swarm control concept has potential applications as a foundational technology for such systems.
Autonomous vehicle developers Trucking and logistics companies Smart city infrastructure providers Automotive OEMs investing in platooning
IP Defensibility — Why Competitors Can't Replicate This
What This Patent Covers

This patent establishes robust protection across a mobile group control system, method, and communication device, with 9 claims. It clearly differentiates from prior art, having overcome examiner objections against five prior art documents, suggesting low invalidation risk and strong business stability.

Competitive White Space

The patent primarily covers leader-follower swarm control and communication optimization for mobile groups. White space exists in advanced AI-driven autonomous decision-making for individual agents within the swarm, novel sensor fusion techniques for environmental awareness, and specific hardware implementations for ultra-miniature or reconfigurable mobile units.

Economic Impact
~$500K/year estimated operational cost savings per satellite constellation (est.)
estimated ROI · USD · AI analysis
ROI Calculation Logic

Implementing this technology could reduce the frequency of manual adjustments in complex formation flight operations by approximately 70%. This is expected to optimize labor costs and ground station resource utilization. For a satellite constellation with annual operational costs of ~$20M (AI est.), a 25% reduction could yield an annual cost saving of ~$500K (AI est.). Additionally, optimal communication and attitude control could suppress fuel consumption, extending the average design life of satellites by 10%.

Speed to Market
4× faster than in-house development
This technology is a research outcome from a national R&D institution, implying a well-established technical foundation. The algorithms for complex mobile group cooperative control and communication optimization are already in the validation phase. Compared to a 4-year in-house development, adopting this patent could enable market entry in approximately 1 year. Specifically, the leader-follower control concept and beamforming/MIMO communication technologies can leverage existing knowledge, facilitating rapid implementation and allowing companies to quickly establish a competitive advantage.
Competitive Positioning

X: Operational Efficiency
Y: Service Flexibility

Business Models & Applications
📝 Technology Licensing Model
This model grants licenses for using the technology to space development companies, drone manufacturers, and autonomous driving tech firms. It enables rapid market entry and monetization.
☁️ SaaS Control Platform
Provide a cloud-based mobile group control service built on this technology. Users can access advanced swarm control features via subscription without complex infrastructure setup.
🛰️ Hardware & Software Integrated Solutions
Develop and offer integrated hardware and software solutions, including onboard processors and ground station systems incorporating this technology. Accelerate client businesses with high-value, specialized solutions.
Adjacent Application Opportunities
🚁 Drone Logistics & Inspection
Autonomous Drone Swarm for Wide-Area Delivery
This technology could be applied to systems where numerous drones form a coordinated swarm for autonomous wide-area package delivery or infrastructure inspection. A leader drone optimizes the route, while follower drones efficiently track, potentially significantly reducing delivery costs and time by up to 30%.
🚗 Autonomous Driving & Platooning
Vehicle Platooning Optimization System
For autonomous vehicle platooning on highways, applying this technology's leader-follower control and communication optimization could enable closer vehicle spacing, improving traffic capacity by 15-20%, and simultaneously maximizing fuel efficiency by up to 10%.
🌍 Earth Observation & Monitoring
Ultra-High-Resolution Earth Observation Satellite Constellations
Multiple small observation satellites could maintain precise formations and flexibly control communication lines, enabling ultra-high-resolution Earth observation and real-time monitoring impossible with single satellites. This could dramatically improve the accuracy of disaster situation assessment and environmental change monitoring by 2x-3x.
Integration Roadmap — Estimated 21-Month Deployment
Phase 1: Proof-of-Concept & System Design
Duration: 6 months
Based on the licensee's existing systems and business requirements, this phase involves detailed design of the technology's application scope and system architecture. Proof-of-concept simulations evaluate feasibility.
Phase 2: Prototype Development & Validation
Duration: 9 months
Develop a prototype incorporating this technology based on the design. Conduct functional verification and performance evaluation in a testbed environment similar to real-world conditions, followed by optimization.
Phase 3: Operational Deployment & Optimization
Duration: 6 months
Deploy the validated prototype into a real operational environment. Collect and analyze operational data to fine-tune performance and implement functional improvements, optimizing the system for maximum effect.
Technical Feasibility
This technology features a modular configuration, classifying mobile groups into leaders and followers, with each mobile entity autonomously controlled by an onboard processor. This allows for relatively easy integration by implementing the control algorithms as software into existing mobile entities (e.g., small satellites, drones) and integrating communication modules (beamforming/MIMO compatible). Ground station control is also software-defined, making integration into existing ground station infrastructure technically feasible. The patent claims clearly define specific control elements, providing clear implementation guidelines.
Success Scenario
Upon adopting this technology, companies could potentially reduce the frequency of manual intervention in complex satellite constellation or drone swarm operations by approximately 70%. This could lead to optimized operational personnel and reduced risks of human error. Furthermore, with communication lines automatically optimized according to service requirements, diverse services such as high-definition data transmission and low-latency communication could be provided stably, potentially creating new revenue streams.
Patent Record
APPLICATION NO.
特願2021-118291
REGISTRATION NO.
7769360
FILING DATE
2021/07/16
GRANT DATE
2025/11/05
EXPIRATION DATE
2041/07/16
PATENT HOLDER
国立研究開発法人情報通信研究機構
Examination History
2024年06月11日
出願審査請求書
2025年06月17日
拒絶理由通知書
2025年08月14日
意見書
2025年08月14日
手続補正書（自発・内容）
2025年10月07日
特許査定