| Abstract |
As the power markets are becoming deregulated worldwide, the modeling of
spikes in power prices is becoming a key problem in energy risk management,
physical assets valuation, and derivatives pricing. For example, power prices
in the United States Midwest in June 1998 rose to $7,500 per megawatt hour
(MWh) compared with typical prices of around $30/MWh as a result of
unseasonably hot weather, planned and unplanned outages, and transmission
constraints.
In this talk, we present a new approach to modeling spikes in power prices
proposed by the author. In contrast to other approaches, we model power
prices with spikes as a non-Markovian stochastic process. This allows for
modeling spikes directly as self-reversing jumps. This also allows for the
analytical valuation of European contingent claims on power with spikes.
Moreover, we obtain a linear evolution equation for the values of these
European contingent claims. We also explore a formal analogy between this
linear evolution equation in the special case of spikes with constant
magnitude and the Schrödinger equation for a two-component spinor
describing a nonrelativistic spin ½ particle in an electromagnetic
field.
We end our talk with a discussion of the presented approach as a rich source
of practically useful research projects for both gradate and undergraduate
students.
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