Abstract
We develop the complete Riemannian geometry of Victoria–Nash asymmetric equilibrium manifolds (VNAE) for $n$-player games. The metric \(g_{ij} = \iota_i \iota_j \delta_{ij} + \varepsilon H_{ij}(V,\iota)\) yields explicit Levi-Civita connection \(\Gamma^k_{ij}\), Riemann tensor \(R^i_{\,jkl}\) with fourth-order $V$-derivative cancellation, Ricci tensor \(R_{ij} \approx \kappa\bigl(\iota_{i,j} \iota_i - \kappa \partial_i^2 \iota_i\bigr) \delta_{ij}\), and scalar curvature \(K_s \approx \sum_{i
Supplementary materials
Title
Step-by-Step Calculations
Description
PDF file containing step-by-step calculations for different K regimes, as well as considering its extension to n = 3 players..
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Title
4-Graphs
Description
Plot 1: Expectation field and nullclines
Plot 2: Curvature as function of θ_A (at fixed point)
Plot 3: Phase portrait (dynamics -F)
Plot 4: Symmetric vs Asymmetric Comparison
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Title
Geodesic Analysis Additional Graph
Description
Geodesic Analysis Additional Graph.
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Residual Analysis Additional Graph
Description
Residual Analysis Additional Graph
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Title
VNAE-Complete-Calculator-For-2-Players
Description
VNAE Calculator for n = 2 players.
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VNAE-Complete-Calculator-For-3-Players
Description
VNAE Calculator for n = 3.
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Supplementary weblinks
Title
VNAE-Lab
Description
Through my GitHub profile (https://github.com/vnae-lab), you can find some real-world projects
applying the VNAE quadratic model, ranging from drone control; consensus in distributed systems;
vehicle platooning; and massive smart grids with 100,000 agents interacting with each other
simultaneously, for example.
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View 


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