On a special case of non-symmetric resource extraction games with unbounded payoffs
On a special case of non-symmetric resource extraction games with unbounded payoffs
The game of resource extraction/capital accumulation is a stochastic infinite- horizon game, which models a joint utilization of a productive asset over time. The paper complements the available results on pure Markov perfect equilib- rium existence in the non-symmetric game setting with an arbitrary number of agents. Moreover, we allow that the players have unbounded utilities and relax the assumption that the stochastic kernels of the transition probability must depend only on the amount of resource before consumption. This class of the game has not been examined beforehand. However, we could prove the Markov perfect equilibrium existence only in the specific case of interest. Namely, when the players have constant relative risk aversion (CRRA) power utilities and the transition law follows a geometric random walk in relation to the joint investment. The setup with the chosen characteristics is moti- vated by economic considerations, which makes it relevant to a certain range of real-word problems.
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