"Relative degree" is over some base number field; multiply by the absolute degree of the number field to get the degree in the sense of the Selberg class. Avoid motives if possible.
The Selberg class parameters should include indication of which values are critical (based on the gamma factors).
Relative degree 1
Survey, including:
\zeta(2m)
- Stark's conjecture
relationship with K-theory
Artin L-functions
Relative degree 2
- Kohnen-Zagier formula. Link to Tornaria data.
- Weight 4 modular forms (William)
Higher relative degree
- Which values are special/critical? (explain normalization)
Symmetric powers (Mark)
- Beilinson conjectures
- Bloch-Kato (map out cases where we can describe everything)
$p$-adic analogues
- Analogues of Stark's conjecture (Dasgupta?)
- Mazur-Tate-Teitelbaum for elliptic curves
Function fields
- Ulmer's theorem
What we want to compute (or have computed, or know how to compute)
- Hecke characters
BSD (p-adic regulators)
- K2 for curves (de Jeu, Dokchitser, Zagier)
- Dedekind zeta functions (see PARI)
- BSD components for genus 2 curves (Flynn-Leprevost-Schaefer-Stein-Stoll-Wetherell) and higher genus (Dokchitser)
Should separate algebraic/transcendental parts when reasonable, and further separate into constituents (e.g., torsion order, Tamagawa numbers). Maybe also want to pick out instances of extra vanishing for central values.
