
doi: 10.1109/18.86972
Summary: Formulas for the expected zero-crossing rates of random processes that are monotone transformations of Gaussian processes can be obtained using two different techniques. The first technique involves the derivation of the expected zero-crossing rate for discrete-time processes and extends the result to the continuous-time case by using an appropriate limiting argument. The second is a direct method that makes use, successively, of Price's theorem, the chain rule for derivatives, and Rice's formula for the expected zero-crossing rate of a Gaussian process. A constant, which depends on the variance of the transformed process and a second-moment of its derivative, is derived. Multiplying Rice's original expression by this constant yields the zero-crossing formula for the transformed process. The two methods can be used for the general level-crossing problem of random processes that are monotone functions of a Gaussian process.
Stationary stochastic processes, Gaussian processes, expected zero-crossing rates, monotone transformations of Gaussian processes, Rice's formula
Stationary stochastic processes, Gaussian processes, expected zero-crossing rates, monotone transformations of Gaussian processes, Rice's formula
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