Given a finite dimensional real inner product space
V with a self-dual cone
K, an element
e in
K∘ (the interior of
K), and a linear transformation
L on
V , the value of the linear game
(L,e) is defined by
where
Δ(e)={x∈K:〈x,e〉=1}. In
[5], various properties of a linear game and its value were studied and some classical results of Kaplansky
[6] and Raghavan
[8] were extended to this general setting. In the present paper, we study how the value and properties change as
e varies in
K∘. In particular, we study the structure of the set
Ω(L) of all
e in
K∘ for which the game
(L,e) is completely mixed and identify certain classes of transformations for which
Ω(L) equals
K∘. We also describe necessary and sufficient conditions for a game
(L,e) to be completely mixed when
v(L,e)=0, thereby generalizing a result of Kaplansky
[6].