Abstract
This chapter shall give some theoretical fundamentals which are necessary for the following work. This includes introducing general principles of game theory as well as a general cooperative advertising model that is successively adapted to the changing requirements during this work.
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Notes
- 1.
See von Neumann and Morgenstern (1944): Theory of games.
- 2.
- 3.
Cf. von Neumann and Morgenstern (1953): Theory of games, pp. 1–6.
- 4.
- 5.
Myerson (1997): Game theory, p. 1.
- 6.
Cf. Riechmann (2008): Spieltheorie, p. 18.
- 7.
Cf. Holler and Illing (2006): Spieltheorie, p. 1.
- 8.
Cf. Borgwardt (2001): Optimierung, p. 509.
- 9.
- 10.
Utility functions were introduced by von Neumann and Morgenstern (1944), who firstly proposed an axiomatic system that allows to quantify utility numerically (see von Neumann and Morgenstern (1953): Theory of games, pp. 15–31). Thereby, a utility function is used to assign an individual utility value of a person to a certain event. This also allows to compare different utility values mathematically (cf. Laux (2005): Entscheidungstheorie, p. 26).
- 11.
Cf. Rieck (2010): Spieltheorie, pp. 102–104.
- 12.
Cf. Borgwardt (2001): Optimierung, p. 514.
- 13.
- 14.
Cf. Jost (2001): Spieltheorie in der Betriebswirtschaftslehre, pp. 21–25.
- 15.
Cf. Rieck (2010): Spieltheorie, p. 162. Please note that matrices are mostly used for 2-person games, but are also defined for n-player games theoretically.
- 16.
- 17.
- 18.
- 19.
Please note that only cooperative (or axiomatic) bargaining theory is considered in this work, which can be used to determine a fair division of pay-offs as explained above. In addition, there is also a research field called non-cooperative, strategic or behavioristic bargaining theory, which refers to the actual bargaining process. Examples of this area are the Zeuthen-Harsanyi game (see Harsanyi (1977): Rational behavior, pp. 162–164, cited in Holler and Illing (2006): Spieltheorie, p. 252), or the Rubinstein game (see Rubinstein (1982): Perfect equilibrium). For a more detailed elaboration, we refer the reader to Berninghaus et al. (2010): Strategische Spiele, pp. 198–229, and Holler and Illing (2006): Spieltheorie, pp. 240–266.
- 20.
Cf. Holler and Illing (2006): Spieltheorie, pp. 189 & 267.
- 21.
See Holler and Illing (2006): Spieltheorie, pp. 78–87.
- 22.
Cf. Leng and Parlar (2005): Game theoretic applications, p. 189.
- 23.
The limitation on bargaining games instead of coalition games results from the fact that only the 2-player game in Chap. 4 additionally requires the application of cooperative game theory. Hence, the analysis of coalitions is dispensable in this context, wherefore we refer interested readers to, e.g., Peleg and Sudhölter (2007): Theory of cooperative games for further information.
- 24.
- 25.
A strategy fulfilling this condition is called a dominant strategy. For more information on the solution technique of strategic dominance see, e.g., Riechmann (2008): Spieltheorie, pp. 25–32.
- 26.
Cf. Sieg (2010): Spieltheorie, p. 15.
- 27.
In the following chapters, we use the superscript N instead of an asterisk to denote a Nash equilibrium in order to distinguish the equilibria introduced in this section.
- 28.
- 29.
More examples related to firms competing in prices or quantities can be found in Pfähler and Wiese (2008): Unternehmensstrategien im Wettbewerb, pp. 53–102.
- 30.
See von Stackelberg (1934): Marktform und Gleichgewicht.
- 31.
- 32.
Another example regarding a Stackelberg game with firms competing in quantity can be found in Pfähler and Wiese (2008): Unternehmensstrategien im Wettbewerb, pp. 150–157.
- 33.
In the following chapters, we use the superscript S to denote a Stackelberg equilibrium.
- 34.
Please note that this concept is sometimes also named collusion or cartelization in economics. To avoid any misunderstandings, it shall again be pointed out that the notion non-cooperative game only refers to the prohibition of preliminary agreements between the players, which does not forbid to act in cooperation.
- 35.
Cf. here and in the following Riechmann (2008): Spieltheorie, pp. 123–125.
- 36.
In the following chapters, we use the superscript C to denote a Cooperation.
- 37.
Cf. Berninghaus et al. (2010): Strategische Spiele, pp. 158 et seq. Please note that bargaining theory directly refers to utility values v p , while non-cooperative games are characterized by the players utility functions u p (s) as explained in the previous section.
- 38.
Please note that this is a modification of the notation \(\mathcal{B} = (\mathcal{V},c)\), which can be found in, e.g., Holler and Illing (2006): Spieltheorie, p. 191, and Sieg (2010): Spieltheorie, p. 92. Here, c denotes the disagreement point of the bargaining game, i.e., the pay-off value each player receives when no agreement can be settled. However, since this disagreement point is dispensable in this work, it is not considered further. In order to ensure comparability to the notation of non-cooperative games, \(\mathcal{G} = (\mathcal{N},\mathcal{S},\mathcal{U})\), we also include the set of participating players \(\mathcal{N}\).
- 39.
See Nash (1950a): Bargaining problem.
- 40.
- 41.
- 42.
In general, the risk behavior of an utility function can be determined by means of the Arrow-Pratt measure of absolute risk aversion, which is defined by \(\mathbb{R}(y) = -(\partial ^{2}u(y)/\partial y^{2}) \cdot (\partial u(y)/\partial y)\) (cf. Pratt (1964): Risk aversion, p. 122). \(\mathbb{R}(y) > 0\) represents risk aversion, \(\mathbb{R}(y) = 0\) risk neutrality, and \(\mathbb{R}(y) < 0\) a risk-seeking behavior. For more information on these terms, see Bamberg et al. (2008): Betriebswirtschaftliche Entscheidungslehre, pp. 81–84.
- 43.
- 44.
- 45.
Cf. Holler and Illing (2006): Spieltheorie, pp. 215–217.
- 46.
An alternative way to integrate bargaining power into a bargaining model can be found in Eliashberg (1986): Arbitrating a dispute. Here, the total utility is calculated via \(v_{\mathcal{N}} =\sum _{p}\lambda _{p}v_{p}\). This model is used in, e.g., Yue et al. (2006): Coordination of cooperative advertising, p. 79, together with an exponential utility function of the shape \(u_{p}(y_{p}) = 1 - e^{-\mu _{p}y_{p}}\). However, as the resulting mathematical expressions a far more complex than those deriving from the Asymmetric Nash bargaining solution, a further discussion of this concept is omitted in this work.
- 47.
- 48.
- 49.
- 50.
Please note that retailer j’s margin can be calculated via \(m_{\mathit{ijk}} = p_{\mathit{jk}} - w_{\mathit{ijk}} - c_{\mathit{jk}}\) if necessary.
- 51.
Cf., e.g., Huang and Li (2001): Co-op advertising models, pp. 529 et seq.
- 52.
- 53.
For a more detailed classification, see the literature review in Chap. 3.
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Aust, G. (2015). Fundamentals. In: Vertical Cooperative Advertising in Supply Chain Management. Contributions to Management Science. Springer, Cham. https://doi.org/10.1007/978-3-319-11626-6_2
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