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Are Equivariant Equilibrium Approximators Beneficial?

ICML 2023 · Learning theory and algorithms › Submodular and game algorithms · approach: Correlated equilibria in sequential games · 0 citations (OpenAlex)

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Measured effects reported in the paper

What was changedWhereMeasuredEffect
Enforce OPI/PPE for NE or PE for CE/CCE with orbit averagingEquilibrium approximator classes · NE, CE, and CCE approximatorscovering number: The projected classes have covering numbers no greater than the general classesHelped
Use a smaller-covering-number equivariant classEquilibrium approximators · Generalization to games drawn from the training payoff distributiongeneralization bound and sample complexity: Both decrease with the decrease of covering numbersHelped
Apply PE projection QCE/CCE approximator · Permutation-invariant payoff distributionsexpected equilibrium approximation (exploitability): \mathbb{E}_{u \sim \mathcal{D}}[\mathcal{E}(\mathcal{Q} \fcCE(u), u)] \le \mathbb{E}_{u \sim \mathcal{D}}[\mathcal{E}(\fHelped
Apply O or P projectionNE approximator · Permutation-invariant payoff distributions for bimatrix constant-sum gamesexpected sum of exploitabilities: \mathbb{E}_{u \sim \mathcal{D}}[\sum_i \mathcal{E}_i((\mathcal{X} \fNE)(u), u)] \le \mathbb{E}_{u \sim \mathcal{D}}[\sumHelped
Add O projection to a PPE approximatorPPE NE approximator · Permutation-invariant payoff distributions for bimatrix gamesexpected NE approximation: \mathbb{E}_{u \sim \mathcal{D}}[\mathcal{E}((\mathcal{O} \fNE)(u), u)] \le \mathbb{E}_{u \sim \mathcal{D}}[\mathcal{E}(\Helped
Add P projection to an OPI approximatorOPI NE approximator · Permutation-invariant payoff distributionsexpected NE approximation: \mathbb{E}_{u \sim \mathcal{D}}[\mathcal{E}((\mathcal{P} \fNE)(u), u)] \le \mathbb{E}_{u \sim \mathcal{D}}[\mathcal{E}(\Helped
Constrain the output to satisfy PE(C)CE approximator · Games with n ≤ N players and |A_i| ≤ Mworst social welfare ratio: 1No clear effect
Constrain the output to satisfy OPINE approximator · Games with n ≤ N players and |A_i| ≤ Mworst social welfare ratio: \frac{1}{M^{N-1}}Hurt
Constrain the output to satisfy PPENE approximator · Games with n ≤ N players and |A_i| ≤ Mworst social welfare ratio: \le \frac{1}{M}Hurt
Constrain the output to satisfy both PPE and OPIExact NE oracle · Games with n ≤ N players and |A_i| ≤ M, M ≥ 3worst social welfare ratio: 0Hurt
Require permutation equivariance/invarianceNE, CE, and CCE approximators · Permutation-invariant games with non-fixed pure-equilibrium actionsequilibria the approximator can findHurt

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