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Ricardo Andrade
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Solve $f(x)=\int_{x-1}^{x+1} f(t) \text\mathrm{d}t$

Solve $f(x)=\int_{x-1}^{x+1} f(t) \text{d}t$$f(x)=\int_{x-1}^{x+1} f(t) \mathrm{d}t$.

When $f(x)$$f$ is a function, it looks like the only solution is $f(x)=0$. But what if we allow distributions, such as DiracDeltathe Dirac delta?

Solve $f(x)=\int_{x-1}^{x+1} f(t) \text{d}t$

Solve $f(x)=\int_{x-1}^{x+1} f(t) \text{d}t$.

When $f(x)$ is a function, looks like the only solution is $f(x)=0$. But what if we allow distributions, such as DiracDelta?

Solve $f(x)=\int_{x-1}^{x+1} f(t) \mathrm{d}t$

Solve $f(x)=\int_{x-1}^{x+1} f(t) \mathrm{d}t$.

When $f$ is a function, it looks like the only solution is $f(x)=0$. But what if we allow distributions, such as the Dirac delta?

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Ricbit
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Solve $f(x)=\int_{x-1}^{x+1} f(t) \text{d}t$

Solve $f(x)=\int_{x-1}^{x+1} f(t) \text{d}t$.

When $f(x)$ is a function, looks like the only solution is $f(x)=0$. But what if we allow distributions, such as DiracDelta?