This subsection presents the Mathematical Model of V-Planning, establishing the quantitative framework for representing, analyzing, and optimizing urban value within the Urban Value Field (UVF). It formalizes urban value as a continuous spatiotemporal field governed by mathematical equations, state variables, and computational models that describe the dynamics of complex urban systems. The framework introduces the Urban Value Field Equation, reaction–diffusion models, network models, and optimization techniques to simulate value propagation, spatial interactions, and urban development processes. Advanced mathematical methods, including Hamiltonian optimization, Fredholm integral equations, and multi-objective optimization, are incorporated to support predictive modeling and planning optimization under complex spatial constraints. By integrating mathematics, spatial economics, Geographic Information Systems (GIS), and computational science, this model provides a rigorous analytical foundation for scenario simulation, infrastructure planning, and evidence-based urban decision-making.
Keywords: V-Planning; Mathematical Modeling; Urban Value Field (UVF); Multi-Objective Optimization; Computational Urban Science
4B.1. Mathematical Representation
4B.2. State Variables
4B.3. Continuous Field
4B.4. Urban Value Field Equation
4B.5. Reaction–Diffusion Model
4B.6. Network Model
4B.7. Hamiltonian Optimization
4B.8. Fredholm Integral Equation
4B.9. Dynamic System
4B.10. Multi-objective Optimization
4B.11. Model Stability
4B.12. Chapter Summary