
For a real-valued measurable function $f$ and a nonnegative, nondecreasing function $ϕ$, we first obtain a Chebyshev type inequality which provides an upper bound for $\displaystyle ϕ(λ_{1}) μ(\{x \in Ω: f(x) \geq λ_{1} \}) + \sum_{k=2}^{n}\left(ϕ(λ_{k})- ϕ(λ_{k-1})\right) μ(\{x \in Ω: f(x) \geq λ_{k}\}) ,$ where $0 < λ_1 < λ_2 \cdots λ_n < \infty$. Using this, generalizations of a few concentration inequalities such as Markov, reverse Markov, Bienaymé-Chebyshev, Cantelli and Hoeffding inequalities are obtained.
11 pages
Mathematics - Functional Analysis, Probability (math.PR), FOS: Mathematics, 60E15, 28A25, Mathematics - Probability, Functional Analysis (math.FA)
Mathematics - Functional Analysis, Probability (math.PR), FOS: Mathematics, 60E15, 28A25, Mathematics - Probability, Functional Analysis (math.FA)
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