๐ŸŒฟ Sagebrush Atlas
Atlas โ€บ Modular forms โ€บ Weight 6 โ€บ Level 3 โ€บ 3.6.a

Newspace 3.6.a: S6new(ฮ“0(3))S_{6}^{\mathrm{new}}(\Gamma_0(3))

Newforms

LabelDimCoefficient fieldTrace formAL signsSignCMElliptic curve
3.6.a.a1Q\mathbb{Q} qโˆ’6q2+9q3+4q4+6q5โˆ’54q6โˆ’40q7+O(q8)q - 6q^{2} + 9q^{3} + 4q^{4} + 6q^{5} - 54q^{6} - 40q^{7} + O(q^{8})โˆ’+1+1

Hecke characteristic polynomials

The eigenvalue of T=T2+T5T = T_{2} + T_{5} generates each orbit's coefficient field; on the newspace its characteristic polynomial factors over Q\mathbb{Q} as one irreducible factor per orbit:

OrbitCharacteristic polynomial of TT
3.6.a.axx

Dimensions

Newforms S6new(ฮ“0(3))S_{6}^{\mathrm{new}}(\Gamma_0(3))1
Old forms0
Cusp forms S6(ฮ“0(3))S_{6}(\Gamma_0(3))1
Eisenstein series E6(ฮ“0(3))E_{6}(\Gamma_0(3))2
Modular forms M6(ฮ“0(3))M_{6}(\Gamma_0(3))3

Decomposition of the old subspace

The old subspace is 0.

Provenance

Stored in the atlas: computed by Sagebrush's modular symbols engine in 0.093 s (one thread) and proven: the dimensions are certified, and the characteristic polynomial of TT over Z\mathbb{Z} is reconstructed by CRT past a rigorous coefficient bound.

The engine's checks
  • dim M^+ at levels [1, 3]: [1, 3] (certified at ell = 2147483647)
  • T = [(2, 1), (5, 1)]; h of degree 1 = 1 x 1 (phi(ord eps) x dim S_k^new); 1 primes, 0 rejected
Open in the notebook ยท JSON ยท stored data
Recompute it yourself

In Sage mode at sagebrush.space (or npx sagebrush --sage):

newform_orbits(3, 6)

With the Rust engine (source), in engine/:

cargo run --release -p sagebrush-web --example atlas -- 3:6 1000

โ† 2.6.a ยท 4.6.a โ†’