A lease cabinet cluster scheduling and transport capacity allocation method based on time series prediction
By constructing a unified timeline operation sequence and time-series prediction model for rental lockers, imbalance results within future windows are generated. Combined with the locker group scheduling relationship matrix, the supply and demand mismatch problem in the rental locker system during peak periods is solved, achieving efficient equipment scheduling and capacity allocation, and improving the system's responsiveness and equipment scheduling efficiency.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- 广州浩安智能科技有限公司
- Filing Date
- 2026-04-21
- Publication Date
- 2026-07-24
AI Technical Summary
Existing rental locker systems suffer from several problems during peak tourist seasons, popular route shifts, and after performances. These problems include continuously empty lockers at entrances, continuously full lockers at exits, prolonged periods of unavailability at certain nodes, and frequent but ineffective transfers. Furthermore, the system lacks the ability to incorporate service accessibility relationships, path costs, current receiving capacity, and current transfer capacity between lockers into the locker group relationship model, resulting in supply and demand complementarity at the prediction level but ineffective implementation at the execution level.
By acquiring data on the borrowing and returning behavior, inventory status, and regional passenger flow of rental lockers, a locker operation sequence with a unified time axis is constructed. A time-series prediction model is used to generate an operation prediction sequence within the future window. The imbalance result is calculated by combining the time decay factor and the passenger flow squeeze term. A locker group scheduling relationship matrix is constructed, and a scheduling instruction set that meets physical constraints is generated to realize equipment allocation and capacity distribution.
It improved the success rate of borrowing and returning during peak hours, reduced the duration of local node imbalances and the pressure on operation and maintenance scheduling, solved the problems of continuous stockouts and full containers, and improved the system's responsiveness and equipment scheduling efficiency.
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Figure CN122453006A_ABST