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Max Alekseyev
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Conjecture 1 does not hold as for any even $n$ there is, (2) has a solution: $$(x,y,z)=(2,\frac23(2^n-1),2(2^n-1))$$

Likewise, Conjecture 2 fails as for $p=2$ and any even $n$ there is, (1) has a solution: $$(x,y,z)=(4,\frac2{15}(4^n-1),\frac25(4^n-1))$$

Conjecture 1 does not hold as for any even $n$ there is a solution: $$(x,y,z)=(2,\frac23(2^n-1),2(2^n-1))$$

Likewise, Conjecture 2 fails as for $p=2$ and any even $n$ there is a solution: $$(x,y,z)=(4,\frac2{15}(4^n-1),\frac25(4^n-1))$$

Conjecture 1 does not hold as for any even $n$, (2) has a solution: $$(x,y,z)=(2,\frac23(2^n-1),2(2^n-1))$$

Likewise, Conjecture 2 fails as for $p=2$ and any even $n$, (1) has a solution: $$(x,y,z)=(4,\frac2{15}(4^n-1),\frac25(4^n-1))$$

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Max Alekseyev
  • 34.3k
  • 5
  • 74
  • 152

Conjecture 1 does not hold as for any even $n$ there is a solution: $$(x,y,z)=(2,\frac23(2^n-1),2(2^n-1))$$

Likewise, Conjecture 2 fails as for $p=2$ and any even $n$ there is a solution: $$(x,y,z)=(4,\frac2{15}(4^n-1),\frac25(4^n-1))$$

Conjecture 1 does not hold as for any even $n$ there is a solution: $$(x,y,z)=(2,\frac23(2^n-1),2(2^n-1))$$

Conjecture 1 does not hold as for any even $n$ there is a solution: $$(x,y,z)=(2,\frac23(2^n-1),2(2^n-1))$$

Likewise, Conjecture 2 fails as for $p=2$ and any even $n$ there is a solution: $$(x,y,z)=(4,\frac2{15}(4^n-1),\frac25(4^n-1))$$

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Max Alekseyev
  • 34.3k
  • 5
  • 74
  • 152

Conjecture 1 does not hold as for any even $n$ there is a solution: $$(x,y,z)=(2,\frac23(2^n-1),2(2^n-1))$$