Abstract
This work investigates the existence and uniqueness of mild solutions to a class of stochastic integral differential equations with various time delay driven by the Rosenblatt process. We can obtain alternative conditions that guarantee mild solutions by using the resolvent operator in the Grimmer sense, stochastic analysis, fixed-point methods, and noncompact measures. We give an example to illustrate the theory.
Acknowledgements
The authors would like to thank the referees and the editor very much for their valuable suggestions to this paper.
References
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Articles in the same Issue
- Frontmatter
- Stochastic fractional differential inclusion driven by fractional Brownian motion
- Riesz idempotent, spectral mapping theorem and Weyl's theorem for (m,n)*-paranormal operators
- On the local time of Gaussian and Lévy processes
- Trajectory fitting estimation for stochastic differential equations driven by fractional Brownian motion
- Existence and uniqueness for reflected BSDE with multivariate point process and right upper semicontinuous obstacle
- Existence results for some stochastic functional integrodifferential systems driven by Rosenblatt process
- Random differential hyperbolic equations of fractional order in Fréchet spaces
- On Ulam type of stability for stochastic integral equations with Volterra noise
Articles in the same Issue
- Frontmatter
- Stochastic fractional differential inclusion driven by fractional Brownian motion
- Riesz idempotent, spectral mapping theorem and Weyl's theorem for (m,n)*-paranormal operators
- On the local time of Gaussian and Lévy processes
- Trajectory fitting estimation for stochastic differential equations driven by fractional Brownian motion
- Existence and uniqueness for reflected BSDE with multivariate point process and right upper semicontinuous obstacle
- Existence results for some stochastic functional integrodifferential systems driven by Rosenblatt process
- Random differential hyperbolic equations of fractional order in Fréchet spaces
- On Ulam type of stability for stochastic integral equations with Volterra noise