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New posts in real-analysis
Prove that $\int_a^bxf(x)dx\geq\frac{b+a}{2}\int_a^bf(x)dx$
real-analysis
integration
integral-inequality
If $f : [a,b]\to\Bbb R$ is continuous, are there $x_1,x_2\in (a,b)$ such that $\tfrac{f(b)-f(a)}{b-a} = \tfrac{f(x_1)-f(x_2)}{x_1-x_2}$?
real-analysis
continuity
Existence of a pointwise convergent subsequence
real-analysis
general-topology
Limit of $\int_0^1\left(\frac {2}{\sqrt {(1-t^2)(1-xt^2)}}-\frac{x}{1-xt}\right)\,dt$ as $x\to 1^{-}$
real-analysis
integration
limits
An inequality regarding power of two real numbers
real-analysis
calculus
inequality
exponential-function
Understanding that $A = \{x\in \ell_2: |x_n| \leq \frac{1}{n}, n = 1,2,...\}$ is compact in $l_2$.
real-analysis
sequences-and-series
compactness
Show by contradiction that $a^n\to 0$
real-analysis
Increasing functions are Baire one
real-analysis
Loomis and Sternberg Problem 1.58
real-analysis
calculus
linear-algebra
vector-spaces
linear-transformations
Some basics of Sobolev spaces
real-analysis
functional-analysis
sobolev-spaces
Derivative of a function is odd prove the function is even.
real-analysis
Strong convergence of operators
real-analysis
analysis
functional-analysis
operator-theory
banach-spaces
If $f:\left[a,b \right]\rightarrow R$ is integrable and ${N}_{f}=\{x\in\left[a,b \right]: f(x)=0\}$ is dense, so $\int_{a}^{b}f(x)dx=0$
real-analysis
Primitive of holomorphic Function $\frac{1}{z}$ on an Annulus.
real-analysis
complex-analysis
cauchy-integral-formula
Evaluating $\int_0^{\infty} \log(\sin^2(x))\left(1-x\operatorname{arccot}(x)\right) \ dx$
calculus
real-analysis
integration
definite-integrals
Are there sets of zero measure and full Hausdorff dimension?
real-analysis
measure-theory
Separation theorem on the space of all complex continuous functions
real-analysis
functional-analysis
Let $f,g:X\rightarrow \mathbb{R}$ continuous functions .If $X$ is open set,then the following set is open:$A=\{x \in X;f(x)\neq g(x)\}$
real-analysis
Proving that: $9.9998\lt \frac{\pi^9}{e^8}\lt 10$?
calculus
real-analysis
approximation
approximation-theory
transcendental-numbers
How to show that $\lim_{n\to \infty} \frac{a_1 +a_2 + \cdots + a_n}{n} = 0?$ [duplicate]
real-analysis
sequences-and-series
limits
solution-verification
alternative-proof
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