Minimal Weierstrass equation
magma: E := EllipticCurve([0, 1, 1, -104207741, 135268278965]); // or
magma: E := EllipticCurve("10005m1");
magma: E := EllipticCurve("10005m1");
sage: E = EllipticCurve([0, 1, 1, -104207741, 135268278965]) # or
sage: E = EllipticCurve("10005m1")
sage: E = EllipticCurve("10005m1")
gp: E = ellinit([0, 1, 1, -104207741, 135268278965]) \\ or
gp: E = ellinit("10005m1")
gp: E = ellinit("10005m1")
\( y^2 + y = x^{3} + x^{2} - 104207741 x + 135268278965 \)
Mordell-Weil group structure
\(\Z\)
Infinite order Mordell-Weil generator and height
magma: Generators(E);
sage: E.gens()
| \(P\) | = | \( \left(-7253, 713854\right) \) |
| \(\hat{h}(P)\) | ≈ | 8.61394688704 |
Integral points
magma: IntegralPoints(E);
sage: E.integral_points()
\( \left(-7253, 713854\right) \)
Note: only one of each pair $\pm P$ is listed.
Invariants
|
magma: Conductor(E);
sage: E.conductor().factor()
gp: ellglobalred(E)[1]
|
|||||
| Conductor: | \( 10005 \) | = | \(3 \cdot 5 \cdot 23 \cdot 29\) | ||
|
magma: Discriminant(E);
sage: E.discriminant().factor()
gp: E.disc
|
|||||
| Discriminant: | \(64514985611316331088611125 \) | = | \(3^{7} \cdot 5^{3} \cdot 23 \cdot 29^{13} \) | ||
|
magma: jInvariant(E);
sage: E.j_invariant().factor()
gp: E.j
|
|||||
| j-invariant: | \( \frac{125147927114815865709295304704}{64514985611316331088611125} \) | = | \(2^{21} \cdot 3^{-7} \cdot 5^{-3} \cdot 23^{-1} \cdot 29^{-13} \cdot 71^{3} \cdot 79^{3} \cdot 6967^{3}\) | ||
| Endomorphism ring: | \(\Z\) | (no Complex Multiplication) | |||
| Sato-Tate Group: | $\mathrm{SU}(2)$ | ||||
BSD invariants
|
magma: Rank(E);
sage: E.rank()
|
|||
| Rank: | \(1\) | ||
|
magma: Regulator(E);
sage: E.regulator()
|
|||
| Regulator: | \(8.61394688704\) | ||
|
magma: RealPeriod(E);
sage: E.period_lattice().omega()
gp: E.omega[1]
|
|||
| Real period: | \(0.054677784008\) | ||
|
magma: TamagawaNumbers(E);
sage: E.tamagawa_numbers()
gp: gr=ellglobalred(E); [[gr[4][i,1],gr[5][i][4]] | i<-[1..#gr[4][,1]]]
|
|||
| Tamagawa product: | \( 7 \) = \( 7\cdot1\cdot1\cdot1 \) | ||
|
magma: Order(TorsionSubgroup(E));
sage: E.torsion_order()
gp: elltors(E)[1]
|
|||
| Torsion order: | \(1\) | ||
|
magma: MordellWeilShaInformation(E);
sage: E.sha().an_numerical()
|
|||
| Analytic order of Ш: | \(1\) (exact) | ||
Modular invariants
Modular form 10005.2.a.g
magma: ModularForm(E);
sage: E.q_eigenform(20)
gp: xy = elltaniyama(E);
gp: x*deriv(xy[1])/(2*xy[2]+E.a1*xy[1]+E.a3)
gp: x*deriv(xy[1])/(2*xy[2]+E.a1*xy[1]+E.a3)
\( q + q^{3} - 2q^{4} - q^{5} - 3q^{7} + q^{9} - 4q^{11} - 2q^{12} - q^{15} + 4q^{16} - 3q^{17} + 5q^{19} + O(q^{20}) \)
|
magma: ModularDegree(E);
sage: E.modular_degree()
|
|||
| Modular degree: | 2140320 | ||
| \( \Gamma_0(N) \)-optimal: | yes | ||
| Manin constant: | 1 | ||
Special L-value
magma: Lr1 where r,Lr1 := AnalyticRank(E: Precision:=12);
sage: r = E.rank();
sage: E.lseries().dokchitser().derivative(1,r)/r.factorial()
sage: E.lseries().dokchitser().derivative(1,r)/r.factorial()
gp: ar = ellanalyticrank(E);
gp: ar[2]/factorial(ar[1])
gp: ar[2]/factorial(ar[1])
\( L'(E,1) \) ≈ \( 3.29694069142 \)
Local data
magma: [LocalInformation(E,p) : p in BadPrimes(E)];
sage: E.local_data()
gp: ellglobalred(E)[5]
| prime | Tamagawa number | Kodaira symbol | Reduction type | Root number | ord(\(N\)) | ord(\(\Delta\)) | ord\((j)_{-}\) |
|---|---|---|---|---|---|---|---|
| \(3\) | \(7\) | \( I_{7} \) | Split multiplicative | -1 | 1 | 7 | 7 |
| \(5\) | \(1\) | \( I_{3} \) | Non-split multiplicative | 1 | 1 | 3 | 3 |
| \(23\) | \(1\) | \( I_{1} \) | Split multiplicative | -1 | 1 | 1 | 1 |
| \(29\) | \(1\) | \( I_{13} \) | Non-split multiplicative | 1 | 1 | 13 | 13 |
Galois representations
The 2-adic representation attached to this elliptic curve is surjective.
magma: [GaloisRepresentation(E,p): p in PrimesUpTo(20)];
sage: rho = E.galois_representation();
sage: [rho.image_type(p) for p in rho.non_surjective()]
sage: [rho.image_type(p) for p in rho.non_surjective()]
The mod \( p \) Galois representation has maximal image \(\GL(2,\F_p)\) for all primes \( p \) .
$p$-adic data
$p$-adic regulators
sage: [E.padic_regulator(p) for p in primes(3,20) if E.conductor().valuation(p)<2]
Note: \(p\)-adic regulator data only exists for primes \(p\ge5\) of good ordinary reduction.
Iwasawa invariants
| $p$ | 2 | 3 | 5 | 7 | 11 | 13 | 17 | 19 | 23 | 29 | 31 | 37 | 41 | 43 | 47 |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Reduction type | ss | split | nonsplit | ordinary | ordinary | ss | ordinary | ordinary | split | nonsplit | ordinary | ordinary | ordinary | ordinary | ordinary |
| $\lambda$-invariant(s) | 8,1 | 2 | 1 | 1 | 1 | 1,1 | 1 | 1 | 2 | 1 | 1 | 1 | 1 | 1 | 1 |
| $\mu$-invariant(s) | 0,0 | 0 | 0 | 0 | 0 | 0,0 | 0 | 0 | 0 | 0 | 0 | 0 | 0 | 0 | 0 |
Isogenies
This curve has no rational isogenies. Its isogeny class 10005.g consists of this curve only.
Growth of torsion in number fields
The number fields $K$ of degree up to 7 such that $E(K)_{\rm tors}$ is strictly larger than $E(\Q)_{\rm tors}$ (which is trivial) are as follows:
| $[K:\Q]$ | $K$ | $E(K)_{\rm tors}$ | Base-change curve |
|---|---|---|---|
| 3 | 3.3.40020.1 | \(\Z/2\Z\) | Not in database |
| 6 | 6.6.16024012002000.1 | \(\Z/2\Z \times \Z/2\Z\) | Not in database |
We only show fields where the torsion growth is primitive. For each field $K$ we either show its label, or a defining polynomial when $K$ is not in the database.