The global push for smart cities and Mobility-as-a-Service (MaaS) platforms necessitates sophisticated analytics to manage complex urban flows. As populations grow and environmental concerns mount, optimizing public transit and reducing congestion are top priorities. This technology offers a data-driven approach to enhance operational efficiency and passenger experience, aligning with sustainability goals and the demand for seamless, personalized travel in increasingly dense urban environments.
Accurately Estimates Route Choice Preferences: Analyzes actual entry/exit data and multi-route usage to precisely understand user's latent preferences, often overlooked by simple time calculations.
Secures Early Market Advantage with High Uniqueness: Distinguishes itself with only 3 cited prior art documents, indicating strong originality. This enables first-mover advantage and rapid market share acquisition in less competitive segments.
Enables Low-Cost Integration with Existing Infrastructure: Utilizes existing station entry/exit data, eliminating the need for major capital investment. Rapid operational deployment is possible through integration with current systems.
This patent protects a method and device for estimating user route choice preferences by analyzing real entry/exit data and combining multiple route usage patterns. It covers the generation of various time distributions and the calculation of synthesis ratios to infer user choices. The claims are robust, having successfully overcome examiner objections, and the limited prior art references (3) underscore its strong uniqueness and market exclusivity.
This patent focuses on estimating user route preferences from existing entry/exit data. White space exists in developing real-time dynamic rerouting systems based on these estimations, or integrating this predictive capability with autonomous vehicle fleet management for optimized last-mile logistics.
Implementing this technology to optimize railway schedules and station navigation in major metropolitan routes could reduce peak-time delays (estimated average 5-minute reduction annually) and increase ridership (estimated 0.5% annual growth) due to improved passenger satisfaction. This is projected to generate an economic impact of ~$1M/year (AI est.), comprising ~$0.7M (AI est.) from delay cost reduction and ~$0.3M (AI est.) from increased revenue.
X: Data Utilization Accuracy
Y: Deployment Cost Efficiency