Vector Bundle Valued Differential Forms on Non-Negatively Graded DG - - PowerPoint PPT Presentation

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Vector Bundle Valued Differential Forms on Non-Negatively Graded DG - - PowerPoint PPT Presentation

Forms on N -Manifolds 1-Forms on Degree One N Q -Manifolds 2-Forms on Degree One N Q -Manifolds Higher Forms on Degree One N Q -Manifolds Vector Bundle Valued Differential Forms on Non-Negatively Graded DG Manifolds Luca Vitagliano University of


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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Vector Bundle Valued Differential Forms

  • n Non-Negatively Graded DG Manifolds

Luca Vitagliano

University of Salerno, Italy

Geometry of Jets and Fields for Janusz’s 60th Birthday B˛ edlewo, May 15, 2015

Luca Vitagliano VB Valued Forms on NQ-manifolds 1 / 32

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Introduction

Graded geometry encodes efficiently (non-graded) geometric structures, e.g. NQ-manifolds encode Lie algebroids and their higher analogues. Remark NQ-manifolds (M, Q) + a compatible geometric structure encode higher Lie algebroids + a compatible structure. Differential forms on M preserved by Q are of a special interest. Vec- tor bundle (VB) valued forms are even more interesting! VB valued forms describe several interesting geometries: foliated, (pre)contact, (pre)symplectic, locally conformal symplectic, poly-symplectic, cosymplectic, multisymplectic, . . .

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Introduction

Examples

deg NQ-manifold standard geometry proved in 1 foliated infinitesimal ideal system [Zambon & Zhu 2012] 1 contact Jacobi [Grabowski 2013] [Mehta 2013] 1 symplectic Poisson [Roytenberg 2002] 2 contact contact-Courant [Grabowski 2013] 2 symplectic Courant [Roytenberg 2002]

Remark All above cases can be regarded as: NQ-manifold + a compatible VB valued form.

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Introduction

The above examples motivate the study of VB valued differential forms

  • n NQ-manifolds!

Aims of the Talk

1

describe VB valued differential forms on N-manifolds in terms of non-graded geometric data,

2

use this description as a unified formalism for examples above,

3

enlarge the list of examples. Remark I work in the simplest case: deg 1, i.e. (non-higher) Lie algebroids.

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Outline

1

Forms on N-Manifolds

2

1-Forms on Degree One NQ-Manifolds

3

2-Forms on Degree One NQ-Manifolds

4

Higher Forms on Degree One NQ-Manifolds

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Outline

1

Forms on N-Manifolds

2

1-Forms on Degree One NQ-Manifolds

3

2-Forms on Degree One NQ-Manifolds

4

Higher Forms on Degree One NQ-Manifolds

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Reminder on Graded Manifolds

Definition: graded manifold A pair M = (M, C∞(M)) consisting of a manifold M and a graded C∞(M)-algebra C∞(M) ≈ Γ(S•E•) for some graded VB E• → M. Remark Smooth maps, vector fields, differential forms, etc. on M are defined algebraically via graded differential calculus on C∞(M). Think of M as a space locally coordinatized by (xi, zα) : deg xi = 0 = ⇒ the xi’s commute, deg zα =: |α| ∈ Z 0 = ⇒ the zα’s graded commute. The Euler vector field ∆ = |α| zα ∂ ∂zα measures the internal degree of geometric objects.

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Q-manifolds and Lie algebroids

Remark I work with N-manifolds M, i.e. C∞(M) is non-negatively graded. The degree of M is the highest degree of its coordinates. Definition: NQ-manifold An N-manifold M + an homological vector field Q, i.e. deg Q = 1, and [Q, Q] = 0. Proposition There is a one-to-one correspondence between deg 1 NQ-manifolds and Lie algebroids, given by (A[1], Q = dA) ⇐ = (A, ρA, [−, −]A). Conversely [α, β]v

A = [[Q, αv], βv]

and ρA(α) f = [Q, αv] f, α, β ∈ Γ(A). where αv ∈ X(A[1]) := vertical lift of α ∈ Γ(A).

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

VB Valued Forms on N-manifolds

Let E → M be a VB in the category of graded manifolds. There is a Cartan calculus on Ω(M, E) := {E-valued differential forms on M}. Definition: derivation of E An R-linear, graded operator X : Γ(E) → Γ(E) such that X( f e) = X( f )e + (−)| f | fXe, for some graded vector field X. Remark ω ∈ Ω(M, E) can be contracted with and Lie differentiated along X. Inte- rior products and Lie derivatives satisfy usual Cartan identities: [iX, iY] = 0, [LX, iY] = i[X,Y], [LX, LY] = L[X,Y]. Definition: vector NQ-bundle A VB E → M + an homological derivation Q, i.e. deg Q = 1, and [Q, Q] = 0.

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Spencer Data

Simplifying Assumption: Γ(E) is generated in deg 0 I.e. E = M ×M E for some non-graded VB E → M. Then a negatively graded derivation X of E is determined by its symbol X ∈ X−(M). Key Remark A degree n > 0 form ω ∈ Ωk(M, E) is completely determined by interior products with and Lie derivatives along negatively graded derivations: nω = L∆ω = |α| (zαL∂/∂zαω + dzα ∧ i∂/∂zαω) . Definition: Spencer data of a deg n > 0 form ω ∈ Ωk(M, E) D : X−(M) − → Ωk(M, E), X − → D(X) := LXω, and ℓ : X−(M) − → Ωk−1(M, E), X − → ℓ(X) := iXω.

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Spencer Data

Theorem Spencer data establish a one-to-one correspondence between degree n > 0 forms ω ∈ Ωk(M, E) and pairs (D, ℓ), with D : X−(M) → Ωk(M, E) a degree n first order DO, and ℓ : X−(M) → Ωk−1(M, E) a degree n C∞(M)-linear map, such that D( f X) = f D(X) + (−)Xd f ∧ ℓ(X), and, moreover, LXD(Y) − (−)XYLYD(X) = D([X, Y]), LXℓ(Y) − (−)X(Y−1)iYD(X) = ℓ([X, Y]), iXℓ(Y) − (−)(X−1)(Y−1)iYℓ(X) = 0. One can describe (inductively on n) ω in terms of non-graded data!

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

A First Example: Degree 1 Symplectic NQ-manifolds

Definition: deg n symplectic N-manifold A deg n N-manifold M + a deg n symplectic form ω. Example: the shifted cotangent bundle T∗[n]M of a deg 0 manifold M Notice that X−(T∗[n]M) = Ω1(M)[n]. T∗[n]M is equipped with a deg n symplectic form ω determined by L(d f )vω = 0, and i(d f )vω = d f, f ∈ C∞(M). Hence D = (−)nd : Ω1(M) → Ω2(M) and ℓ = id : Ω1(M) → Ω1(M). Definition: deg n symplectic NQ-manifold A deg n NQ-manifold (M, Q) + a deg n symplectic form ω such that LQω = 0.

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

A First Example: Degree 1 Symplectic NQ-manifolds

Theorem [Roytenberg 2002] There is a “one-to-one” correspondence between deg 1 symplectic NQ- manifolds (M, Q) and Poisson manifolds. An alternative proof via Spencer data Let M = A[1] → M. Then X−(M) = Γ(A)[1]. non-degeneracy ⇒ ℓ : Γ(A) ≃ Ω1(M) closedness ⇒ D = −d ◦ ℓ

  • ⇒ (M, ω) ≃ (T∗[1]M, ω),

Hence, LQω = 0 ⇔ i(d f )vi(dg)v LQω = L(d f )vi(dg)v LQω = 0. From Q = dT∗M for a Lie algebroid (T∗M, ρT∗M, [−, −]T∗M), follows i(d f )vi(dg)v LQω = −ρT∗M(d f )(g) − ρT∗M(dg)( f ) and L(d f )vi(dg)v LQω = dρT∗M(d f )(g) − [d f, dg]T∗M.

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Outline

1

Forms on N-Manifolds

2

1-Forms on Degree One NQ-Manifolds

3

2-Forms on Degree One NQ-Manifolds

4

Higher Forms on Degree One NQ-Manifolds

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Distributions on NQ-Manifolds

Let (M, Q) be an NQ-manifold, and D ⊂ TM a distribution. Simplifying Assumption: TM/D is generated in deg −k Projection θD : TM → TM/D → (TM/D)[−k] =: ED can be seen as a deg k (surjective) ED-valued 1-form. Definition: D compatible with Q If [Q, Γ(D)] ⊂ Γ(D). Proposition D is compatible with Q iff there is an homological derivation Q of ED with symbol Q such that LQθD = 0.

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Degree 1 Foliated NQ-Manifolds

Definition: deg n foliated NQ-manifold A deg n NQ-manifold (M, Q) + an involutive distribution D such that TM/D is generated in deg −n and [Q, Γ(D)] ⊂ Γ(D). Proposition [Zambon & Zhu 2012] There is a “one-to-one” correspondence between deg 1 foliated NQ-manifolds and Lie algebroids A → M + an infinitesimal ideal system covering TM. Reminder: infinitesimal ideal system covering TM A Lie subalgebroid B ⊂ A over M, a flat connection in A/B, + a certain compatibility condition. There is a simple, alternative proof via Spencer data of θD.

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Degree 1 Contact NQ-Manifolds

A contact structure on M is an hyperplane distribution C with non- degenerate curvature: ωC : C × C − → TM/C, (X, Y) − → θC([X, Y]). Definition: deg n contact NQ-manifold A deg n NQ-manifold (M, Q) + a contact structure C such that TM/C is generated in deg −n, and [Q, Γ(C)] ⊂ Γ(C). Proposition [Grabowski 2013], [Mehta 2013] There is a “one-to-one” correspondence between deg 1 contact NQ-manifolds and Jacobi bundles. Reminder: Jacobi bundle A line bundle L → M + a Lie bracket {−, −} on Γ(L) which is a first

  • rder DO in each entry.

There is a simple, alternative proof via Spencer data of θC.

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Outline

1

Forms on N-Manifolds

2

1-Forms on Degree One NQ-Manifolds

3

2-Forms on Degree One NQ-Manifolds

4

Higher Forms on Degree One NQ-Manifolds

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Degree 1 LCS NQ-Manifolds

A lcs structure on M is a pair consisting of a flat line bundle (L, ∇)

  • ver M and a d∇ -closed, non-degenerate, L-valued, 2-form ω.

Definition: deg n lcs NQ-manifold A deg n N-manifold M + a line NQ-bundle (L, Q) generated in deg 0, and a lcs structure ((L, ∇), ω) such that deg ω = n, and LQω = 0. Proposition There is a “one-to-one” correspondence between deg 1 lcs NQ-manifolds and lc Poisson manifolds. Reminder: lc Poisson manifold A manifold M with a flat line bundle (L, ∇) and a morphism P : ∧2(T∗M ⊗ L) → L inducing a Lie bracket {−, −}P on Γ(L): {λ, µ}P = P(d∇λ, d∇µ), λ, µ ∈ Γ(L).

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Degree 1 Presymplectic NQ-Manifolds

Definition: deg n presymplectic NQ-manifold A deg n NQ-manifold (M, Q) + a deg n presymplectic form ω such that LQω = 0. Proposition There is a “one-to-one” correspondence between deg 1, dim (m, m) presym- plectic NQ-manifolds [+ clean intersection] and Dirac m-folds. Reminder: Dirac manifold A manifold M + a maximal isotropic subbundle D ⊂ TM ⊕ T∗M whose sections are preserved by Dorfman brackets. Dirac structures can be alternatively described within graded geome- try as Lagrangian submanifolds in deg 2 symplectic NQ-manifolds!

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Forms on N-Manifolds 1-Forms on Degree One NQ-Manifolds 2-Forms on Degree One NQ-Manifolds Higher Forms on Degree One NQ-Manifolds

Degree 1 Poly-Symplectic NQ-Manifolds

A k-poly-symplectic structure on M is a closed, Rk-valued 2-form ω such that ω♭ : X → iXω is a VB embedding. Definition: deg n k-poly-symplectic NQ-manifold A deg n NQ-manifold (M, Q) + a deg n k-poly-symplectic structure ω such that LQω = 0. Proposition There is a “one-to-one” correspondence between deg 1 k-poly-symplectic NQ-manifolds and k-poly-Poisson manifolds. Reminder: k-poly-Poisson manifold (in the sense of [Martinez 2015])

A manifold M + a subbundle S ⊂ T∗M ⊗ Rk + a VB morphism P : S → TM:

1

iP(α)β + iP(β)α = 0, with α, β ∈ Γ(S),

2

Γ(S) is preserved by bracket [α, β]S := LP(α)β − LP(β)α + diP(β)α,

3

non degeneracy.

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Half Step Behind: Degree 1 Cosymplectic NQ-Manifolds

A cosymplectic structure on M is a pair (η, ω):

1

η ∈ Ω1(M) and ω ∈ Ω2(M),

2

η = 0 and ω is non-degenerate on ker η,

3

dη = dω = 0. The “hard” part is to guess the definition of cosymplectic NQ-manifold! Definition: deg n cosymplectic NQ-manifold A deg n NQ-manifold (M, Q) + a deg n cosymplectic structure (η, ω) such that LQη|ker η = LQω|ker η = 0. Proposition There is a “one-to-one” correspondence between deg 1 cosymplectic NQ- manifolds and Poisson manifolds with a Poisson vector field.

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One Step Behind: Degree 1 Precontact NQ-Manifolds

A precontact structure is an hyperplane distribution. Definition: deg n precontact NQ-manifold A deg n NQ-manifold (M, Q) + a precontact structure C such that TM/C is generated in deg −n, and [Q, Γ(C)] ⊂ Γ(C). Proposition There is a “one-to-one” correspondence between deg 1, dim (m, m + 1) pre- contact NQ-manifolds [+ clean intersection] and Dirac-Jacobi bundles over a dim m manifold. Reminder: Dirac-Jacobi bundle A line bundle L → M + a maximal isotropic subbundle D ⊂ der L ⊕ J1L whose sections are preserved by Dorfman-Jacobi brackets.

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Outline

1

Forms on N-Manifolds

2

1-Forms on Degree One NQ-Manifolds

3

2-Forms on Degree One NQ-Manifolds

4

Higher Forms on Degree One NQ-Manifolds

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Spencer Operators on Lie Algebroids

Spencer operators are infinitesimal counterparts of multiplicative VB val- ued differential forms on Lie groupoids. Let A → M be a Lie algebroid and (E, ∇) a representation of A. Definition: E-valued k-Spencer operator on A A pair (D, ℓ) with D : Γ(A) → Ωk(M, E) a first order DO, and ℓ : Γ(A) → Ωk−1(M, E) a C∞(M)-linear map, such that D( f α) = f D(α) − d f ∧ ℓ(α), and, moreover L∇αD(β) − L∇βD(α) = D([α, β]A), L∇αℓ(β) + iρA(β)D(α) = ℓ([α, β]A), iρA(α)ℓ(β) + iρA(β)ℓ(α) = 0.

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deg 1 Higher Forms on NQ-Manifolds

Theorem There is a one-to-one correspondence between

1

deg 1 N-manifolds M, an NQ-vector bundle (E → M, Q), with Γ(E) generated in deg 0, a deg 1 form ω ∈ Ωk(M, E) such that LQω = 0,

2

Lie algebroids A → M, a representation (E, ∇) of A, an E-valued k-Spencer operator on A.

Proof M = A[1] and E = M ×M E. Q ⇐ ⇒ a Lie algebroid structure on A + a representation (E, ∇). Spencer data of ω define an E-valued k-Spencer operator on A.

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deg 1 Multisymplectic NQ-manifolds

A k-plectic structure on M is ω ∈ Ωk+1(M) such that ω♭ : X → iXω is a VB embedding. Definition: deg n k-plectic NQ-manifold A deg n NQ-manifold (M, Q) + a deg n k-plectic structure ω such that LQω = 0. Corollary There is a “one-to-one” correspondence between deg 1 k-plectic NQ- manifolds and Lie algebroids + an IM k-plectic structure. Reminder: IM k-plectic structure on a Lie algebroid A A C∞(M)-linear map ℓ : Γ(A) → Ωk(M) such that iρA(α)ℓ(β) + iρA(β)ℓ(α) = 0, and LρA(α)ℓ(β) − iρA(β)dℓ(α) = ℓ([X, Y]A), + non-degeneracy conditions.

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Conclusions

I presented a unified formalism for deg 1, contact, symplectic, and foliated NQ-manifolds. New Examples in Degree 1

deg 1 NQ-manifold standard geometry (first) considered in precontact Dirac-Jacobi [Wade 2000] lcs lc Poisson [Vaisman 2007] poly-symplectic poly-Poisson [Iglesias et al. 2013] [Martinez 2015] presymplectic Dirac [Courant 1990] cosymplectic coPoisson [Janyška & Modugno 2009] higher form Spencer operator [Crainic et al. 2013] multisymplectic IM multisymplectic [Bursztyn et al. 2013]

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References

  • J. GRABOWSKI,

Graded contact manifolds and contact Courant algebroids,

  • J. Geom. Phys. 68 (2013) 27–58.

R.A. MEHTA, Differential graded contact geometry and Jacobi structures,

  • Lett. Math. Phys. 106 (2013) 729–741.
  • D. ROYTENBERG,

On the structure of graded symplectic supermanifolds and Courant algebroids, in: Quantization, Poisson Brackets and Beyond, Contemp. Math. 315, AMS, Prov- idence, RI, 2002, pp. 169–185.

  • L. V.,

VB valued differential forms on NQ-manifolds, arXiv:1406.6256.

  • M. ZAMBON, AND C. ZHU,

Distributions and quotients on degree one NQ-manifolds and Lie algebroids,

  • J. Geom. Mech. 4 (2012) 469–485.

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References

  • T. COURANT,

Dirac manifolds,

  • Trans. Amer. Math. Soc. 319 (1990) 631–661.
  • E. BURSZTYN, A. CABRERA, AND D. IGLESIAS,

Multisymplectic geometry and Lie groupoids, in: Geometry, Mechanics and Dynamics, Field Inst. Commun. Series 73, Springer, New York, NY, 2015, pp. 57–73.

  • M. CRAINIC, M.A. SALAZAR, AND I. STRUCHINER,

Multiplicative forms and Spencer operators,

  • Math. Z. 279 (2015) 939–979.
  • D. IGLESIAS, J.C. MARRERO, AND M. VAQUERO,

Poly-Poisson Structures,

  • Lett. Math. Phys. 103 (2013) 1103–1133.

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References

  • J. JANYŠKA, AND M. MODUGNO,

Generalized geometrical structures of odd dimensional manifolds,

  • J. Math. Pures. Appl. 91 (2009) 211–232.
  • N. MARTINEZ,

Poly-symplectic Groupoids and Poly-Poisson Structures,

  • Lett. Math. Phys. 105 (2015) 693–721.
  • I. VAISMAN,

Dirac structures and generalized complex structures on TM × Rh, Adv Geom. 7 (2007) 453–474.

  • A. WADE,

Conformal Dirac structures,

  • Lett. Math. Phys. 53 (2000) 331–348.

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Best Wishes, Janusz!

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