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Eleven-Dimensional CJS Supergravity Bosonic Action

Physical scope

Adopted source-free, two-derivative, classical eleven-dimensional CJS bosonic action and Planck normalization. It is the fermion-free truncation of the low-energy supergravity framework; no brane sources, higher-derivative corrections, quantum effects, or field equations are asserted here.

Postulate

Adopt the following classical bosonic truncation of eleven-dimensional Cremmer–Julia–Scherk (CJS) supergravity. Let M be an oriented Lorentzian eleven-manifold without boundary with metric g of signature (−+⋯+), Levi-Civita connection from Levi-Civita Connection on an Eleven-Dimensional Lorentzian Manifold, scalar curvature R, and Hodge star from Eleven-Dimensional Oriented Lorentzian Geometry. Let C3∈Ω3(M) be a globally defined smooth real three-form potential and set F4:=dC3. In natural units ℏ=c=1, take the action

S[g,C3]=12κ11 2∫M(R vol⁡g−12F4∧∗gF4−16C3∧F4∧F4).

Here ℓp>0 is the eleven-dimensional Planck length and the adopted normalization is

2κ11 2=(2π)8ℓp9.

Thus [ℓp]=length and [κ11 2]=length9. In coordinates of length dimension with dimensionless metric components, the action density is dimensionless after integration when [CMNP]=1, [FMNPQ]=length−1, and [R]=length−2. The form norm is signed Lorentzian norm ∣F4∣g2=(1/4!)FMNPQFMNPQ.

The CJS multiplet includes a 32-real-component Majorana gravitino and one 32-real-component local supersymmetry parameter; the displayed action omits all fermion terms. This adopted action is the source-free, two-derivative low-energy truncation. It omits brane currents and boundary terms, the higher-derivative C3∧X8 correction, and quantum corrections. The displayed Chern–Simons sign is tied to the stated potential convention: replacing C3 by −C3 reverses that sign along with F4=dC3. The item asserts a model convention, not a universal law or a claim that every eleven-manifold admits these fields.

Postulate references

Hamilton, §5.1, Definition 5.1, and §8.2, Remark 8.26; Taylor, §1.4, equation (9); Gauntlett–Pakis, §2, equation (2.1).

Facts & Assumptions

Given: The action is adopted in the source-free, classical, two-derivative regime stated above.

[A1]

Supergravity Conventions And Normalizations: its current carrier declares natural units ℏ=c=1, Lorentzian signature (−+⋯+), the signed form norm ∣Fp∣2=(1/p!)FM1…MpFM1…Mp, and one 32-real-component Majorana parameter for 11D CJS. Its current Step 1 record is ready at hash 41d207e61dbef5573f48b5cf2e70c2c19a13696ec755a3c8047c832905c0b550. The current carrier does not state the ℓp-to-κ11 relation; that separate normalization is adopted here directly from Hamilton §8.2, Remark 8.26.

[F1]

Eleven-Dimensional Oriented Lorentzian Geometry defines the oriented metric volume form, signed Lorentzian form pairing, and Hodge star; Levi-Civita Connection on an Eleven-Dimensional Lorentzian Manifold supplies the unique torsion-free metric connection used for R.

[F2]

Supergravity Conventions And Normalizations fixes the curvature convention RPQMN=∂MΓPNQ−∂NΓPMQ+ΓPMRΓRNQ−ΓPNRΓRMQ,RQN=RPQPN,R=gQNRQN. The scalar curvature R in the Postulate uses this convention and the Levi-Civita connection supplied in [F1].

Remarks

Variational equations are addressed in Source-Free Eleven-Dimensional CJS Bosonic Field Equations.

Taylor’s equation (9) is used as an independent low-energy field-content and action-form comparison. Its locator is not used to assert the exact (2π)8ℓp9 normalization. The action is interpreted through differences under compactly supported variations when M is noncompact; no finite total action is assumed.

Depends on

Dependency tree · 2 levels

Sources