STACKELBERG GAMES ON A NETWORK WITH COURNOT‐NASH OLIGOPOLISTIC COMPETITORS
Tanfield C. Miller, Roger L. Tobin, Terry L. Friesz
Abstract
Tanfield C. Miller, Roger L. Tobin, Terry L. Friesz
Abstract
ABSTRACT. We formulate the spatial Stackelberg‐Nash‐Cournot competitive network equilibrium problem as a variational inequality constrained mathematical program. Our model differs from previous models of Stackelberg oligopolistic competition in that it employs explicit shipping decision variables and a general network topology. That is, the production and distribution decisions of the Stackelberg firm are determined simultaneously over a discrete network. We explore the existence of solutions to the proposed model, and we also numerically test a sensitivity analysis based algorithm. In particular, we illustrate how sensitivity analysis results can be used to generate the Cournot reaction necessary to solve the Stackelberg problem.
OpenAlex reports 40 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
ABSTRACT. We formulate the spatial Stackelberg‐Nash‐Cournot competitive network equilibrium problem as a variational inequality constrained mathematical program. Our model differs from previous models of Stackelberg oligopolistic competition in that it employs explicit shipping decision variables and a general network topology. That is, the production and distribution decisions of the Stackelberg firm are determined simultaneously over a discrete network. We explore the existence of solutions to the proposed model, and we also numerically test a sensitivity analysis based algorithm. In particular, we illustrate how sensitivity analysis results can be used to generate the Cournot reaction necessary to solve the Stackelberg problem.
Key concepts: Stackelberg competition, Cournot competition, Oligopoly, Sensitivity (control systems), Mathematical optimization, Nash equilibrium, Mathematical economics, Variational inequality