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Max Alekseyev
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Subtracting $\lceil n^\beta\rceil-1$ from every $x_i$, translates the problem translates to the number of partitions of $\lceil n^\alpha\rceil - t(\lceil n^\beta\rceil-1)$ into $t$ parts: $$p_t(\lceil n^\alpha\rceil - t(\lceil n^\beta\rceil-1)).$$

Subtracting $\lceil n^\beta\rceil-1$ from every $x_i$, the problem translates to the number of partitions of $\lceil n^\alpha\rceil - t(\lceil n^\beta\rceil-1)$ into $t$ parts: $$p_t(\lceil n^\alpha\rceil - t(\lceil n^\beta\rceil-1)).$$

Subtracting $\lceil n^\beta\rceil-1$ from every $x_i$ translates the problem to the number of partitions of $\lceil n^\alpha\rceil - t(\lceil n^\beta\rceil-1)$ into $t$ parts: $$p_t(\lceil n^\alpha\rceil - t(\lceil n^\beta\rceil-1)).$$

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Max Alekseyev
  • 34.3k
  • 5
  • 74
  • 152

Subtracting $\lceil n^\beta\rceil-1$ from every $x_i$, the problem translates to the number of partitions of $\lceil n^\alpha\rceil - t(\lceil n^\beta\rceil-1)$ into $t$ parts: $$p_t(\lceil n^\alpha\rceil - t(\lceil n^\beta\rceil-1)).$$