For a smooth projective geometrically connected curve C/F_q of genus g, Z_C(T) = P_C(T)/((1−T)(1−qT)), with P_C(T)=∏_{j=1}^{2g}(1−α_j T) and |α_j|=√q under every complex embedding.
Assumptions
C is a smooth projective geometrically connected curve over a finite field F_q.
Use its own rational zeta function Z_C, not the classical Riemann ζ.
This is proved in another mathematical domain. Its geometric proof gives insight but does not establish classical RH; it is not counted as a proved special case of ζ.
For a smooth projective geometrically connected curve C/F_q of genus g, Z_C(T) = P_C(T)/((1−T)(1−qT)), with P_C(T)=∏_{j=1}^{2g}(1−α_j T) and |α_j|=√q under every complex embedding.
C is a smooth projective geometrically connected curve over a finite field F_q.
Use its own rational zeta function Z_C, not the classical Riemann ζ.
Scope: Weil’s RH analogue for curves over finite fields.
This is proved in another mathematical domain. Its geometric proof gives insight but does not establish classical RH; it is not counted as a proved special case of ζ.
For a smooth projective geometrically connected curve C/F_q of genus g, Z_C(T) = P_C(T)/((1−T)(1−qT)), with P_C(T)=∏_{j=1}^{2g}(1−α_j T) and |α_j|=√q under every complex embedding.
C is a smooth projective geometrically connected curve over a finite field F_q.
Use its own rational zeta function Z_C, not the classical Riemann ζ.
Scope: Weil’s RH analogue for curves over finite fields.