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HAL Id: tel-01372957

https://tel.archives-ouvertes.fr/tel-01372957v2

Submitted on 20 Dec 2016

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Détection, localisation et estimation de défauts : application véhicule

Ahmad Farhat

To cite this version:

Ahmad Farhat. Détection, localisation et estimation de défauts : application véhicule. Automatique

/ Robotique. Université Grenoble Alpes, 2016. Français. �NNT : 2016GREAT056�. �tel-01372957v2�

(2)

THÈSE

Pour obtenir le grade de

DOCTEUR DE LA COMMUNAUTE UNIVERSITE GRENOBLE ALPES

Spécialité : Automatique - Productique

Arrêté ministériel : 7 août 2006

Présentée par

Ahmad FARHAT

Thèse dirigée par Damien KOENIG

préparée au sein du GIPSA-Lab dans l'École Doctorale EEATS

Détection, localisation et estimation de défauts : Application véhicule

Thèse soutenue publiquement le 22/09/2016 devant le jury composé de :

M. Luc DUGARD

Directeur de recherche, CNRS Grenoble, Président

M. Saïd MAMMAR

Professeur, Université d'Evry Val-d'Essonne, Rapporteur

M. Didier THEILLIOL

Professeur, Université de Lorraine, Rapporteur

M. Michel BASSET

Professeur, Université de Haute Alsace, Examinateur

M. Damien KOENIG

Professeur associé, HDR, Institut Polytechnique de Grenoble, Directeur

(3)
(4)
(5)
(6)
(7)
(8)
(9)

N R C R e(.)

S (M ) M

M T M

M M

M + M

M ≻ ( )0 M

M ≺ ( )0 M

(⋆) L ∞

L 2

RH ∞

k . k 2 2

k . k ∞ ∞

k . k − −

(10)
(11)

H − /H ∞

H

H H

H

H

H

r(t)

(12)

z s z ˙ s

(13)

H /H

H

(14)

H H ∞

H

H

(15)

H /H H /H

H /H

(16)

H

H ∞

H

(17)

ρ 1

ρ 2

(18)

(19)

+2, 4%

(20)

1 : 5

(21)

r(t) r(t)

f (t) f (t)

r(t) 6 = 0 f (t) 6 = 0

| r(t) | > γ f(t) 6 = 0

γ

(22)

Actionneurs Syst`eme Capteurs y(t)

u(t)

G´en´erateur de r´esidu

Logique de d´esicion

nature, valeur du d´efaut

H 2 /H H /H H /H

H − /H ∞

(23)

H H H

(24)

H /H

H

(25)

H

H

H − /H ∞

H /H

(26)

H ∞

H ∞

H ∞

H ∞

(27)

H − /H ∞ H ∞

f : R n × R m 7→ R n g : R n × R m 7→ R l ( x(t) = ˙ f (t, x(t), u(t))

y(t) = g(t, x(t), u(t))

x(t) X ⊂ R n u(t)

U ⊂ R m y(t) Y ⊂ R l

f (.) g(.)

(28)

( x(t) = ˙ Ax(t) + Bu(t) y(t) = Cx(t) + Du(t)

( x(k + 1) = Ax(k) + Bu(k) y(k) = Cx(k) + Du(k)

G(.) = y(.) u(.)

G(s) = D + C(sI − A) −1 B , G(z) = D + C(zI − A) −1 B ,

A, B, C, D G(s) G(z)

G(s) ,

"

A B C D

#

(x e , u e ) δx(t) δu(t)

x(t) = x e (t) + δx(t) u(t) = u e (t) + δu(t)

(δx, δu) dδx

dt =

∂f(x, u)

∂x ∗

δx +

∂f(x, u)

∂u ∗

δu

(29)

( ) (x e , u e ) A B

C D

A = ∂f ∂x (x,u) x = x e

u = u e

, B = ∂f ∂u (x,u) x = x e

u = u e

,

C = ∂g(x,u) ∂x x = x e

u = u e

, D = ∂g(x,u) ∂u x = x e

u = u e

.

T d

A d = e A c kT d

B d = A −1 c (e A c kT d − I )B c T d C d = C c

D d = D c

e A c kT d = I n + T d A c

T d

A d = I n + T d A c

(30)

D d = D c

A ∈ R n×m B ∈ R p×q

A ⊗ B = h A ij B i

ij =

a 11 B . . . a 1m B a n1 B . . . a nm B

M M = A + BCD A C

[A + BCD] −1 = A −1 − A −1 B

DA −1 B + C −1 −1

DA −1

n × n ∀ u ∈ R n

u T F u ≻ ( ≺ )0

G(s) G

ω | G(jω) |

(31)

G(jω)

σ i (G(jω)) := p

λ i (G(jω)G(jω) )

i=1.. (m,l)

= q

λ i (G(jω)G( − jω) T )

i=1.. (m,l)

σ(G(jω)) σ(G(jω))

σ(G(jω)) ≥ σ 1 (G(jω)) ≥ σ 2 (G(jω)) ≥ · · · ≥ σ(G(jω)) l = m = 1

σ(G(jω)) = σ(G(jω)) = | G(jω) |

u(t) y(t)

σ(G(jω)) ≤ k y(jω) k 2

k u(jω) k 2 ≤ σ(G(jω)) L

L ∞ C C 7→ C

f(jω) ∀ ω ∈ R sup

ω∈ R

σ[f(jω)]

H 2

H 2 e(t) L 2

H 2

k e(t) k 2 = R ∞

0 e(τ ) T e(τ )dτ

H RH

H L ∞

f (jω) ∀ ω ∈ R R e(jω) > 0 H

RH ∞

(32)

H ∞ RH ∞

L 2 L 2

w(t) z(t) H ∞

k G(s) k = sup

ω∈ R

σ(G(jω))

= sup

ω∈H 2

kz(s)k 2 kw(s)k 2

= max

ω∈L 2

kzk 2 kwk 2

H −

H

[ω, ω]

[0, ∞ ]

H G(s)

k G(s) k [ω,ω] − = inf

ω∈[ω,ω] σ(G(jω))

ω ω ∞

x ∈ R n F (x) = F (0) +

m

X

i=1

F i x i ≻ ( ≺ )0 F i = F i T ∀ i ∈ { 1, .., m }

˙

x(t) = Ax(t) V (t) = x T (t)P x(t) V (t) > 0 V ˙ (t) < 0

x T P x > 0 x T (A T P + P A)x < 0

F (P ) =

"

− P 0 0 A T P + P A

#

≺ 0

(33)

P = P T F (P) ≺ 0 P

F (x) ≺ 0 x

x opt

P Q M

"

P M

M T Q

#

≺ 0

( Q ≺ 0

P − M Q −1 M T ≺ 0

( P ≺ 0

Q − M T P −1 M ≺ 0

P − M Q −1 M T Q

Ψ N θ M

Φ + M T θ T N + N T θM < 0

W X X

θ

W M T ΨW M < 0 W N T ΨW N < 0

X Y ∆ ∆ T ∆ < I

α > 0

X T ∆Y + Y T ∆X ≤ αX T X + 1

α Y T Y

(34)

X 2 , Y 2 ∈ R n×m X 3 , Y 3 ∈ R m×m

"

X X 2

X 2 T X 3

#

≺ 0

"

X X 2

X 2 T X 3

# −1

=

"

Y Y 2

Y 2 T Y 3

#

"

X I I Y

#

≻ 0

"

X I I Y

#

≤ n + m

"

X I I Y

#

≻ 0 (I − XY ) ≤ m

A

A P > 0

A T P + P A < 0

A T P A − P < 0

(35)

t i

x i t i t f t i u(t)

[t i , t f ] x i ∀ t 1

C (B,A) = h

B AB A 2 B . . . A n−1 B i C (B,A) ) = n C (B, A)

n C

n C = n (B, A)

(B, A)

t i

x i t i t f t i y(t)

u(t) [t i , t f ] x i

O (A,C) =

 C CA CA 2 CA n−1

(36)

P P AP −1 =

"

A 11 0 A 21 0

#

, CP −1 = h C 1 0 i

,

A 11 n O × n O n O < n C 1 l × n O A 21 (n − n O ) × (n − n O )

n O

n O = n

C(sI − A) −1 B = 0, ∀ s ∈ C B

"

sI − A C

#

= n, ∀ s ∈ C .

(A, C) (A, C )

0 < γ < ∞ A k G(s) k < γ

P = P T > 0

"

P A + A T P + C T C P B + C T D

⋆ D T D − γ 2 I

#

< 0 P

P A + A T P P B C T

⋆ − γI D T

⋆ ⋆ − γI

 < 0

S S = P −1

(37)

AS + SA T B SC T

⋆ − γI D T

⋆ ⋆ − γI

 < 0

V = x T P x V > 0 V < ˙ 0 H y T y < γ 2 u T u

x T P x > 0

˙

x T P x + x T P x ˙ + y T y − γ 2 u T u < 0

P S γ

P γ H

G(s)

P, γ γ ∈ R +

=

P, γ γ ∈ R +

=

S, γ γ ∈ R +

= k G(s) k = γ ∞

P S γ

A T P A − P B T P A C T

⋆ B T P B − γI D T

⋆ ⋆ − γI

 < 0

D

D = { z ∈ C : L + zM + ¯ zM T < 0 }

L M L T = L

f D = L + zM + ¯ zM T

D D R

D R = { z ∈ C : R 11 + R 12 z + R T 12 z ¯ + R 22 z¯ z < 0 }

R 22

(38)

D

A P

R 11 ⊗ P + R 12 (P A) + R T 12 ⊗ (A T P ) + R 22 ⊗ (A T P A) < 0

• R 11 = 0 R 12 = 1 R 22 = 0

• R 11 = − 1 R 12 = 0 R 22 = 1

• R e(z) ≤ − δ

R 11 = 2δ R 12 = 1 R 22 = 0

• 2φ

ξ = (φ) R 11 = 0 2×2 R 12 =

"

(φ) (φ)

− (φ) (φ)

#

R 22 = 0 2×2

(l < n)

t x(t)

x(t)

Σ LT I :

( x(t) = ˙ Ax(t) + Bu(t) y(t) = Cx(t)

y(t) ← y(t) − Du(t)

(39)

x(t) OBSV

OBSV :

( z(t) ˙ = F z (t) + Ju(t) + Ly(t) w(t) = M z(t) + N y(t) x(t) ∈ R n u(t) ∈ R m y(t) R l

z(t) ∈ R q T x(t) w(t)

e(t) = T x(t) − z(t) 0

t→∞ lim e(t) = T x(t) − z(t) = 0

x(t) z(t) = ˆ x(t) x(t) ˆ x(t)

˙ˆ

x(t) = A x(t) + ˆ Bu(t) + L(y(t) − y(t)) ˆ ˆ

y(t) = C x(t) ˆ

L(y(t) − y(t)) ˆ L

˙ˆ

x(t) = (A − LC)ˆ x(t) + Bu(t) + Ly(t)

˜

x(t) = x(t) − x(t) ˆ

˙˜

x(t) = (A − LC)˜ x(t)

˜

x(0) = x(0) − x(0) ˆ

˜

x(t) = e (A−LC)t x(0) ˜

0 t t = 0 ˜ x(0) 6= 0

x(0) = ˆ x(0)

˜

x(t) −→ 0 t −→ ∞ L

A − LC

(40)

(A, C)

A − LC (A, C )

L A − LC

L

L

n − l

C x(t)

C = h

C 1 C 2 i , x =

"

x 1 x 2

# , (C 1 ) = l C 1 ∈ R l×l x 1 ∈ R l×l

C 1 ) = l x(t) = ¯ P x(t)

P =

"

C 1 C 2 0 n−l,l I n−l,l

# ,

Σ LT I :

( x(t) = ˙¯ A ¯ x(t) + ¯ ¯ B u(t) ¯

¯

y(t) = C ¯ x(t) ¯ A ¯ = P AP −1 B ¯ = P B C ¯ = CP −1

C

(41)

x(t)

A =

"

A 11 A 12

A 21 A 22

#

, B =

"

B 1

B 2

# , C = h

I l 0 i

, x(t) =

"

x 1

x 2

# .

˙

x 1 (t) = A 11 x 1 (t) + A 12 x 2 (t) + B 1 u(t)

˙

x 2 (t) = A 21 x 1 (t) + A 22 x 2 (t) + B 2 u(t) y(t) = x 1 (t)

l (y(t) = x 1 (t)) x 1 (t)

x 1 (t)

ξ(t) x 2 (t)

u(t)

ξ(t) = ˙ x 1 (t) − A 11 x 1 (t) = A 12 x 2 (t) + B 1 u(t) x 2 (t) v(t)

˙

v(t) = A 21 x 1 (t) + A 22 v(t) + B 2 u(t) + K[ξ(t) − ξ(t)] ˆ x 1 (t) = y(t)

ξ(t) = A 12 v(t) + B 1 u(t)

ξ(t) y(t)

z(t)

z(t) = v(t) − Ly(t) z(t)

˙

z(t) = v(t) ˙ − L x ˙ 1 (t)

= A 21 x 1 (t) + A 22 v(t) + B 2 u(t) − L[A 11 x 1 (t) + A 12 v(t) + B 1 u(t)]

z(t) = v(t) − Ly(t) y(t) = x 1 (t)

˙

z(t) =F z(t) + Ju(t) + L 1 y

F =A 22 − L 1 A 12

J =B 2 − L 1 B 1

L 1 =A 21 + A 22 L − LA 11 − LA 12 L

(42)

v(t) =z(t) + Ly

e(t) e(t) = x 2 (t) − v(t) e(t)

˙

e(t) = F e(t) F = A 22 − LA 12

F

(A 22 , A 12 ) F

L (A, C) (A 22 , A 12 )

(A, C) (A 22 , A 12 ) (A, C)

∀s ∈ C ,

sI − A C

=

sI − A 11 −A 12

−A 21 sI − A 22

I l 0

 = n

∀s ∈ C , =

A 12

sI − A 22

= n − l (A 22 , A 12 )

˙

z(t) =F z(t) + Ju(t) + L 1 y

F J L x ˆ 1 x ˆ 2

x 1 x 2

ˆ

x 1 (t) = C 1 −1 [(I − C 2 L)y(t) − C 2 z(t)]

ˆ

x 2 (t) = z(t) + Ly(t)

H − /H ∞

˙

x(t) = Ax(t) + Bu(t) + E d d(t) + E f f(t)

y(t) = Cx(t) + Du(t) + F d d(t) + F f f (t)

(43)

Syst`eme

Observateur y ˆ

u y

d f

r G´en´erateur de r´esidu

A ∈ R n×n B ∈ R n×m E d ∈ R n×n d E f ∈ R n×n f C ∈ R l×n D ∈ R l×m F d ∈ R l×n d F ∈ R l×n f d ∈ R n d f ∈ R n f

"

sI − A E f

C D f

#

= n + n f , ∀s ∈ C .

d(t) f (t)

r(t)

 

 

˙ˆ

x = Aˆ x + Bu + L(y − y) ˆ ˆ

y = C x ˆ + Du r = y − y ˆ

kr d k 2 < γ kdk 2

kr f k 2 > β kf k 2

˜

x = x − x ˆ

˙˜

x = Ax + B u + E d d + E f f − Aˆ x − Bu − LC x ˜ − LF d d − LF f f

= (A − LC)˜ x + (E d − LF d )d + (E f − LF f )f

r = C x ˜ + F d d + F f f

(44)

A = A − LC E d = E d − LF d E f = E f − LF f

T rd T rf

T rf (s) = C(sI − A ) −1 E f + F f T rd (s) = C(sI − A ) −1 E d + F d

H H

kT rd k < γ kT rf k > β

H − /H ∞ L γ

β

(A, C)

H γ ∈ R +

kr d k 2 < γ kdk 2 γ ∈ R +

kT rd (s)k < γ

γ ∈ R + L P > 0

"

P (A − LC) + (A − LC) T P + C T C P (E d − LF d ) + C T F d

⋆ F d T F d − γ 2 I

#

< 0

γ ∈ R + U P > 0

"

P A + A T P + U C + C T U + C T C P E d + U F d + C T F d

⋆ F d T F d − γ 2 I

#

< 0

L = −P −1 U

(45)

γ ∈ R + U P > 0

P A + A T P + U C + C T U P E d + U F d C T

⋆ −γ 2 I F d T

⋆ ⋆ −I

 < 0 L = −P −1 U

H ∞

kr d k 2 < γ kdk 2 ⇔ kr d k 2 kdk 2 < γ, kT rd (s)k = sup

d ∈ R nd

kr d k 2 kdk 2 < γ

V > 0 V < ˙ 0 V | f=0 = ˜ x T P x P > ˜ 0 V < ˙ 0

r d T r d − γ 2 d T d < 0

V ˙ + r T d r d − γ 2 d T d < 0

⇔ x ˙˜ T P x ˜ + ˜ x T P x ˙˜ + r T d r d − γ 2 d T d < 0

x ˜ d

T

P A + A ∗T P + C T C P E d + C T F d

⋆ F d T F d − γ 2 I

˜ x d

< 0

∀ x ˜

d

6= 0

P A + A ∗T P + C T C P E d + C T F d

⋆ F d T F d − γ 2 I

< 0

U = −LP

H − F f

β ∈ R +

kr f k 2 > β kfk 2

(46)

kT rf (s)k > β

β ∈ R + L P

"

P (A − LC) + (A − LC) T P − C T C P (E f − LF f ) − C T F f

⋆ β 2 I − F f T F f

#

< 0 L = −P −1 U

β ∈ R + U P

"

−P A − U C + C T C − A T P − C T U −P E f − U F f + C T F f

⋆ F f T F f − β 2 I

#

> 0 L = −P −1 U

V ˙ | d=0 − r T f r f + β 2 f T f < 0

P H

H − /H ∞ H ∞ P

H

ω→∞ lim G(jω) = lim

ω→∞ (C(jωI − A) −1 B + D) = D D = 0 H −

L

H −

β

D T D ≥ β 2 I L D T D −β 2 I

(47)

Syst`eme

Observateur ˆ y

u y

d f

r G´en´erateur de r´esidu

W f

˜

r r ¯

D add

H /H

f = 0 f << ∞

H /H

H ∞

σ(G(jω)) = 0 σ(G(jω)) L

β [0, ω] H −

H −

F f = 0 T rf (s)

β = 0

|G(jω)|

D add

σ(G(jω)+D add ) > 0 β = D add H

W f

W f (s) =

s/ω 1 + 1 s/ω 2 + 1

m

ω 1 < ω 2 m

(48)

10 −2 10 −1 10 0 10 1 10 2 10 3 10 4 10 5

−70

−60

−50

−40

−30

−20

−10 0 10 20

Fr´equence (rad/s)

G a in (d B )

T rf (s)

T rf (s) + D add

(T rf (s) + D add ) W f (s)

H

D add W f (s) T ¯ rf (s) = f ¯ r(s) (s)

T rf (s) = f r(s) (s)

D add << 1 W f (jω) | ω<ω 1 = 1

T ¯ rf (s) | ω<ω 1 = T rf (s) | ω<ω 1 = C(sI − A + LC) −1 E f + F f

W f (s) :=

"

A F B F C F D F

#

W f

˙ˆ

x = A x ˆ + Bu + L(y − y) ˆ ˆ

y = C x ˆ + Du

˜

r = (y − y) + ˆ D add f

˙

x F = A F x h + B F ˜ r

¯

r = C F x h + D F r ˜

(49)

˜ x

"

˙˜

x

˙ x F

#

=

"

A − LC 0 B F C A F

# "

˜ x x h

# +

"

E d − LF d B F F d

# d +

"

E f − LF f B F (F f + D add )

# f

¯

r = h

D F C C F i

"

˜ x x F

# + h

D F F d i d + h

D F (F f + D add ) i f

x a = h

˜

x T x T F i T

˙

x a = A a x a + E d a d + E f a f

¯

r = C a x a + F d a d + F f a f

A a =

"

A − LC 0 B F C A F

#

, E a f =

"

E f − LF f

B F (F f + D add )

#

, E d a =

"

E d − LF d

B F F d

#

C a = h

D F C C F

i

, F f a = D F (F f + D add ) F d a = D F F d

F f =

"

F f 1

0

#

D add =

"

0 εI

#

H H T rf ¯ :=

"

A a E f a C a F f a

#

, T rd ¯ :=

"

A a E d a C a F d a

#

H / H

H − /H ∞

γ β U a

P a > 0

P a A 0 + A T 0 P a + U a C 0 +C 0 T U aT + C aT C a

P a E d0 + U a F d

+C aT D a d

⋆ D aT d D d a − γ 2 I

< 0

− P a A 0 − A T 0 P a − U a C 0

− C 0 T U aT + C aT C a

− P a E f0 − U a F f

+C aT D a f

⋆ D aT f D f a − β 2 I

> 0

(50)

A 0 , B f0 , B d0 , C 0 I 0

A 0 =

"

A 0

B F C A F

#

, C 0 = h C 0 i

, I 0 =

"

− I 0

#

E d0 =

"

E d

B F F d

#

E f 0 =

"

E f

B F (F f + D add )

#

L = I 0 T (P a ) −1 U a

T ¯ rd

P a A a + C aT C a P a E d a +A aT P a +C aT D d a

⋆ D d aT D d a − γ 2 I

 < 0

A a E d a

P a A a = P a

A 0 B F C A F

+ P a

− I 0

L

C 0

P a E d a = P a E d

B F F d

+ P a

− I 0

LF d

P a (A 0 + I 0 LC 0 ) +(A 0 + I 0 LC 0 ) T P a

+C aT C a

P a (B 0

+I 0 LF d ) +C aT D d a

⋆ D aT d D d a − γ 2 I

< 0

U a = P a I 0 L

H

H

H

H

(51)

H ∞

r u y

d u d y

η ε

G(s) K(s)

u(s) y(s)

u(s) = (1 + G(s)K(s)) −1 (K(s)r(s) − K(s)d y (s)

− K(s)η(s) + K(s)G(s)d u (s)) y(s) = (1 + G(s)K(s)) −1 (G(s)K(s)r(s) + d y (s)

− G(s)K(s)η(s) + G(s)d u (s))

S (s) , (1 + G(s)K(s)) −1

T (s) , 1 − S (s) = (G(s)K(s)(1 + G(s)K(s)) −1 KS (s) , K (s)(1 + G(s)K(s)) −1

SG (s) , (1 + G(s)K(s)) −1 G(s)

u(s) = KS (s)r(s) − KS (s)d y (s) − KS (s)η(s) − T (s)d u (s)) y(s) = T (s)r(s) + S (s)d y (s) − T (s)η(s) + T (s) G (s)d u (s))

T (s) = y(s)

r(s) = − y(s)

η(s) = u(s) d u (s) S (s) = y(s)

d y (s) = 1 − T (s) = ε(s) r(s) KS (s) = u(s)

r(s) = − u(s)

d y (s) = − u(s) η(s) SG (s) = y(s)

d u (s)

u

d u d y

ε y

r Contrˆoleur K ∞ Syst`eme Σ t

η

(52)

u

d u d y

ε y

r Contrˆoleur K ∞ Syst`eme Σ t

η W e e ε

H ∞

S (s) W e

e ε

S (s) W e (s)

|S (s) | ≤

1 W e (s)

∀ s

kW e (s) S (s) k ∞ ≤ 1

W e (s) S (s) W T (s) T (s) W u (s) KS (s) W SG (s) SG (s)

≤ 1

S (s) KS (s)

u

d u d y

ε y

r Contrˆoleur K ∞ Syst`eme Σ t

η W e e ε

W u e u

(53)

u

W e (s) S (s) W u (s) KS (s)

≤ 1

H ∞

H P (s)

w

u e

y

w T = h

r d T u d T y i T

z T = h ε u T

i T

y s = ε u s = u W I W O

W I W O

W I = I W O = ( W e , W u )

P P

P (s) :=

 

 

˙

x(t) = Ax(t) + B w w(t) + B u u(t) z(t) = C z x(t) + D wz w(t) + D uz u(t) y(t) = C y x(t) + D wy w(t) + Duyu(t) K

K(s) :=

( x ˙ K (t) = A K x K (t) + B K y s (t) u s (t) = C K x K (t) + D K y s (t) x ∈ R n w ∈ R n w u s ∈ R n u z ∈ R n z y s ∈ R n y x K ∈ R n K

H w

z H ∞

T zw (s)

k T zw (s) k < γ

P (s)

K (s)

u s

y s

z w

H ∞

(54)

P (s)

K(s)

u s

y s

¯

z w ¯ W I (s) w

W O (s)

z

P’

H T zw (s) L l (P(s), K(s))

P (s), K(s) F (P(s), K(s)) H

K γ

H H

H ∞

F (P (s), K(s)) (A, B u )

(A, C y )

y s u s D yu = 0

L 2 w z γ k z k 2 < γ k w k 2

γ > 0 P cl (n + n K ) ×

(n + n K )

P cl A cl + A T cl P cl B cl T P cl C cl T

⋆ − γI D cl T

⋆ ⋆ − γI

 < 0 P cl > 0

A cl =

"

A + B u D K C y B u C K

B K C y A K

#

, B cl =

"

B w + B u D K D yw

B K D yw

# , C cl = h

C z + D zu D K C y D zu C K

i D cl = h

D zw + D zu D K D yw

i .

(55)

F (P (s), K(s)) P K

˙ x(t)

˙ x K (t)

z(t) y s (t)

=

A 0 B w B u

B K C y A K B K D yw 0 C z 0 D zw D zu

C y 0 D yw D yu

 x(t) x K (t)

w(t) u s (t)

w z

˙ x(t)

˙ x K (t)

z(t)

 =

A + B u D K C y B u C K B w + B u D K D yw

B K C y A K B K D yw

C z + D zu D K C y D zu C K D zw + D zu D K D yw

 x(t) x K (t)

w(t)

L l (P (s), K (s)) =

"

A cl B cl

C cl D cl

#

P cl A K B K C K D K

H

H ∞

γ > 0 X Y A ˜ B ˜ C ˜ D ˜

M 11 ⋆ ⋆ ⋆ M 21 M 22 ⋆ ⋆ M 31 M 32 M 33 ⋆ M 41 M 42 M 43 M 44

< 0

"

R I n

I n S

#

> 0

M 11 = AR + RA T + B u C ˜ + ˜ C T B u T M 21 = ˜ A + A T + C y D ˜ T B T u

M 32 = B w T S + D yw T B ˜ T

M 33 = − γI n u , M 44 = − γI n y

M 41 = C z R + D zu C ˜

(56)

M 42 = C z + D zu DC ˜ y

M 43 = D zw + D zu DD ˜ yw

D K = ˜ D

C K = ( ˜ C − D K C y R)M −1 B K = N −1 ( ˜ B − SB u D K )

A K = N −1 ( ˜ A − SAR − SB u D K C y R

− N B u C k R − SB u C K M T )M −1

M N

M N T = I − RS

P cl

P cl =

S N N T U

, P cl 1 =

R M M T V

P cl P cl −1 = I P cl

R M T

, =

I 0

P cl Π 1 = Π 2

Π 1 =

R I M T 0

Π 2 = I S

0 N T

Π 1

Π T 1 , I, I

D ˜ = D K

C ˜ = C K M T + D K C z R B ˜ = N B K + SB w D K

A ˜ = N A K M T + N B K C y R

+ SB u C K M T + S(A + B u D K C y )R

H ∞

γ >

0 R S

(57)

"

N R 0 0 I n w

#

AR + RA T RC z T B w

⋆ − γI n z D zw

⋆ ⋆ − γI n w

"

N R 0 0 I n w

#

< 0

"

N S 0 0 I n z

# T 

A T S + SA T B w S C z T

⋆ − γI n w D zw T

⋆ ⋆ − γI n z

"

N S 0 0 I n z

#

< 0

"

R I n

I n S

#

> 0

N R N S h

B u T D T zu i h

C y D yw

i n k < n

(I − RS) ≤ n k

θ =

D K i C i K B i K A K i

A cl B cl C cl D cl

L l (P (s), K (s)) =

"

A cl B cl

C cl D cl

#

=

"

A 0 + B θ C B 0 + B θ D yw

C 0 + D zu θ C D 0 + D zu θ D yw

#

A 0 =

A 0 0 0 n k

; B 0 = B w

0

; C 0 = C z

0

; B =

0 B u

I n k 0

;

C =

0 I n k

C y 0

; D zu = 0 D zu

D yw = 0

D yw

;

Ψ P cl + Q T θ T X P cl + X P T cl θQ < 0

X P cl =

B T P cl 0 D T zu

; Q =

C D yw 0

;

Ψ P cl =

P cl A 0 + A T 0 P cl B 0 T P cl C 0 T

⋆ − γI D zw T

⋆ ⋆ − γI

P =

B 0 D zu

X P cl =

P cl 0 0 0 I 0 0 0 I

 P X P cl P

(58)

Q W X W P W Q W X =

P cl 1 0 0 0 I 0 0 0 I

 W P P cl θ

W P T Φ P cl W P < 0 W Q T Ψ P cl W Q < 0

Φ P cl =

A 0 P cl 1 + A T 0 P cl 1 B 0 T P cl 1 C 0 T

⋆ − γI D zw T

⋆ ⋆ − γI

W X T Ψ P cl W X < 0

W P T

P cl −1 0 0 0 I 0 0 0 I

T

Ψ P cl

P cl −1 0 0 0 I 0 0 0 I

 W P < 0

P cl −1 P cl −1

W P T

A 0 0 0

R M

M T V

+

R M T

M V

A i 0 0 0

B w

0

R M T

M V

C z T 0

B w T 0

− γI D T zw C z

0

R M

M T V

D zw − γI

W P < 0

⇔ W P T

AR + RA T AM B w RC z T M T A 0 0 M C z T B w T 0 − γI D T zw C z R C z M D zw − γI

 W P < 0

P =

B 0 D zu

=

0 I n k 0 n k × n w 0 B u T 0 0 n u × n w D T zu

,

W 1

W 4

B T u D zu T

W P P

W P

W 1 0

0 0

0 I n w

W 4 0

(59)

W P

W 1 0 W 4 0 0 I n w

T 

AR + RA T RC z T B w

B w T − γI D zw

C z R D T zw − γI

W 1 0 W 4 0 0 I n w

 < 0

W Q T

A 0 0 0

S N

N T U

+

S N N T U

A i 0 0 0

S N N T U

B w

0

C z T 0

B T w 0

S N

N T U

− γI D zw T C z 0

D zw − γI

W Q < 0

⇔ W Q T

A T S + SA A T N SB w C z T N T A 0 N T B w 0

B w T S B w T N − γI D T zw C z 0 D zw − γI

 W Q < 0

Q =

C D yw 0

=

0 I n k 0 0 n k × n z

C y 0 D yw 0 n y ×n z

W 2

W 3

C y

D yw

W Q Q

W Q =

W 2 0

0 0

W 3 0 0 I n z

 W 2 0 W 3 0 0 I n z

T 

A T S + SA SB w C z T B w T S − γI D T zw

C z D zw − γI

 W 2 0 W 3 0 0 I n z

 < 0

N R = W 1

W 4

N S = W 2

W 3

P cl

(60)

Syst`eme K f

d

f y f ˆ z

H

n k = n

K

R S M N

I − RS

U U = N T RM +T

M + M

P cl

K

H ∞

H

˙

x = Ax + E d d + E f f y = Cx + F d d + F f f

K f∞ (s)

z = ˆ f − f w T = h

d T f T i

d

(61)

P (s)

K (s)

u = ˆ f y

¯

z w ¯ W I (s) w

W O (s)

z d

f

H ∞

K f ∞ (s)

˙

x F = A F x F + B F y f ˆ = C F x F + D F y

H z = ˆ f − f

w = h d T f T

i T

y s = y u = ˆ f

P (s) :=

 

 

˙

x(t) = Ax(t) + B w w(t) + B u u(t) z(t) = C z x(t) + D wz w(t) + D uz u(t) y(t) = C y x(t) + D wy w(t) + D uy u(t)

A = A, B w = h

B E d E f i

, B u = 0

C z = 0, Dzw = h

0 0 − 1 i

, D zu = h

1 i

C y = C, D yw = h

B F d F f

i

, D yu = h 0 i

D yu = 0 H ∞

W I W O

H

(62)

α(t) : t ∈ R + ( Z + ) 7→ I := { 1, 2, . . . , N }

( h ◦ x(t) = f α(t) (t, x(t), u(t)) y(t) = g α(t) (t, x(t), u(t)) x ∈ R n u ∈ R m y ∈ R l

f i : R n × R m 7→ R n g i : R n × R m 7→ R l ∀ i ∈ I h ◦ x(.)

h ◦ x(t) = ˙ x(t) h ◦ x(t) = x(t + 1)

h ◦ x(t) = A α(t) x(t)

A α(t) ∈ A = A 1 , A 2 , . . . , A N

˙

x(t) = A α(t) x(t)

P > 0 ∀ i ∈ I

(63)

P > 0 A T i P + P A i < 0

P > 0 A T i P A i − P < 0

V (x) = x T (t)P x(t) V (t) > 0 V ˙ (t) < 0 V (t + 1) − V (t) < 0

V (k, x(k), α(k)) = x T (k)P α(k) x(k)

∀ α ∈ I P i ∀ i ∈ I

"

P j A T i P i

⋆ P i

#

> 0 ∀ (i, j) ∈ I × I P i G i ∀ i ∈ I

"

G i + G T i − S i G T i A T i

⋆ S j

#

> 0 ∀ (i, j) ∈ I × I

V (k, x(k), α(k)) = x T (k)P α(k) x(k) ∀ α(k) ∈ I V (k, x(k), α(k)) > 0

V (k + 1, x(k + 1), α(k + 1)) − V (k, x(k), α(k)) < 0

∀ k ∈ Z +

x T (k + 1)P α(k+1) x(k + 1) − x T (k)P α(k) x(k) < 0

(64)

∀ x(k) ∈ R n

A T α(k) P α(k+1) A α(k) − P α(k) < 0

⇔ A T α(k) P α(k+1) T P α(k+1) 1 P α(k+1) A α(k) − P α(k) < 0

"

− P α(k+1) − A T α(k) P α(k+1) T

⋆ − P α(k)

#

< 0, ∀ α(k) ∈ I

α(k) = i i me

i = α(k) 6 = α(k + 1) = j − P j − A T i P i

⋆ − P i

< 0, ∀ (i, j) ∈ I × I

S i = P i 1 S j = P j 1 − S j −1 − A T i S −1 i

⋆ − S i −1

< 0, ∀ (i, j) ∈ I × I

I, S i

S j − A T i S i A i = T ij > 0 G i = S i + g i I g i g i

g −2 i (S i + 2g i I) > A T i T ij A i ∀ (i, j) ∈ I × I

S i + 2g i I − g i A T i

⋆ T ij

∀ (i, j) ∈ I × I

G i T ij

P i = P ∀ i ∈ I N = 2

{ A 1 , A 2 } (N = 2)

(65)

δ ∈ [0, 1]

A eq = δA 1 + (1 − δ)A 2

α(t) ∈ { 1, 2 }

A eq = δA 1 + (1 − δ)A 2 δ ∈ [0, 1] P

Q

δ(A T 1 P + P A 1 ) + (1 − δ)(A T 2 P + P A 2 ) = − Q

δx T (A T 1 P + P A 1 )x + (1 − δ)x T (A T 2 P + P A 2 )x = − xQx < 0, ∀ x ∈ R n { 0 }

x T (A T 1 P + P A 1 )x x T (A T 2 P + P A 2 )x ∀ x ∈ R n { 0 }

V (x) = x T P x

A

a ij ≥ ∀ i 6 = j

M c M d

Π ∈ R N×N

Π ∈ M c :

N

X

i=1

π ij = 0

Π ∈ M d :

N

X

i=1

π ij = 1

∀ j = 1, .., N

(66)

A T i P i + P i A i +

N

X

j=1

π cji P j + Q i < 0

A T i

N

X

j=1

π dji P j

 A i − P j + Q i < 0

τ D τ D ∈ N P i > 0 ∀ i ∈ I

A T i P i A i − P i < 0 ∀ i ∈ I

(A τ i d ) T P j A τ i d − P i < 0 ∀ (i, j) ∈ I × I , i 6 = j

τ D

τ D = 1

τ moy

τ moy

τ moy

N α (T, t) [t, T ]

α(t) N 0 τ moy

N α (T, t) ≤ N 0 + T − t τ moy

N 0

(67)

τ D τ moy

H /H H ∞

H

(68)
(69)

t s us

i = { f, r } j = { l, r }

X, Y, Z (x, y, z)

θ

m x ¨ = F tx f + F tx r − F aero − R tx f − R tx r − mg (θ)

F tx f F tx r

F aero

R tx f R tx r

m g

(70)

ρ C d A F V x V vent

ρ C d A F

F aero = c aero ( ˙ x + V vent ) 2

R tx f + R tx r = f(F zf + F zr ) f

F zf = − F aero h aero + m¨ xh + mgh (θ) − mgl r (θ) l f + l r

F zr = F aero h aero + m xh ¨ + mgh (θ) + mgl f (θ) l f + l r

l r l f h

h aero

F tx f F tx r

F t

F t

(71)

θ z

x

X Z

m ω I t

˙

x r ef f ω i

β x i = ρ 1 (r ef f i ω i − x) ˙

ω i i me r ef f s

ρ 1

1 ρ 1 =

( x ˙ , ( ˙ x < 0)

r ef f ω i , ( ˙ x > 0)

F tx ij = D x

(C x ) B x β x ij − E x (B x β x ij − (B x β x ij )

F tx i = c xi β xi

c xi

(72)

Acc´el´eration

D´ec´el´eration

coefficient de glissement

F or ce d u p n eu [N]

3000

2000

1000

0

−1000

− 2000

− 3000

−4000

− 0.6 − 0.5 − 0.4 − 0.3 − 0.2 − 0.1 0 0.1 0.2 0.3 0.4 0.5 0.6 Non Lin´eaire

Lin´earis´ee pour de petits glissements

I t f ω ˙ t f = T t f − r ef f f F x f

I t r ω ˙ t r = T t r − r ef f r F x r

I t T t f

T t r

m

m¨ x = c x (r ef f ω − x)ρ ˙ 1 − c aero ( ˙ x + V vent ) 2 − f mg (θ) − mg (θ) I t ω ˙ = − r ef f c x (r ef f ω − x)ρ ˙ 1 + T i

θ = 0

(73)

ρ 2 = ˙ x

"

¨ x

˙ ω

#

=

"

β m x ρ 1c aero m ρ 2 r ef f m β x ρ 1

r ef f β x

I t ρ 1r

2 ef f β x

I t ρ 1

# "

˙ x ω

# +

"

0

1 I t

# T i

c trans

y =

"

1 0

0 c 1

trans

# "

˙ x ω

#

l f l r L = l r + l f

δ

X Y ψ X, Y

ψ V ~ = X ~ ˙ + Y ~ ˙ β

δ r 6 = δ l

≈ R

F l = mV 2

R

(74)

δ F tx f l

F ty f l

l r

l f

F ty rl

F tx rl

y

x V ~ = X ~ ˙ + Y ~ ˙

t r

β

X ψ

t f

A

B

CoG

 

 

 

 

X ˙ = V (ψ + β) Y ˙ = V (ψ + β) ψ ˙ = V l (β)

r +l f (δ) β = −1 l

f +l r (δ) l r +l f

y ψ v

y ma y (t) = F yf + F yr

= F tx f (δ) + F ty f (δ) + F ty r + F dy

(75)

a y = ¨ y + v ψ ˙

¨ y = v β ˙

I z ψ ¨ = l f F yf − l r F yr

= l f (F tx f (δ) + F ty f (δ)) − l r F ty r + M dz (δ) ∼ = 0 (δ) ∼ = 1

mv( ˙ β + ˙ ψ) = F ty f + F ty r + F dy

I z ψ ¨ = l f F ty f − l r F ty r + M dz

F ty f F ty r β

F ty f = c yf β yf

F ty r = c yr β yr

β yf = δ − β + l f ψ ˙ v β yr = − β + l r ψ ˙

v

mv( ˙ β + ˙ ψ) = c yf

δ − β + l f v ψ ˙ + c yr

− β + l r v ψ ˙ + F dy

I z ψ ¨ = l f c yf

δ − β + l f v ψ ˙

− l r c yr

− β + l r v ψ ˙ + M dz

F d l d

"

β(t) ˙ ψ(t) ¨

#

=

c yr mv(t) +c yf c yr mv l r −c 2 (t) yf l f − 1

c yr l r −c yf l f

I z − c yr I l 2 r z +c v(t) yf l 2 f

"

β(t) ψ(t) ˙

# +

" c

yf

c mv yr l f I z

# δ(t) +

"

1 mv l d

I z

#

F d (t)

(76)

a y = v( ˙ β + ˙ ψ) = v

( − c yr + c yf

mv )β + ( c yr l r − c yf l f

mv 2 − 1) ˙ ψ + c yf mv δ

+ v ψ ˙

y =

"

ψ ˙ a y

#

=

"

0 1

c yr +c m yf c yr l r mv −c yf l f

# "

β ψ ˙

# +

"

0

c yf mv

# δ

• m s

z s

• m us

z us

(77)

z r

k t c t

k s

( m s z ¨ s = − (F sz + F dz ) m us z ¨ us = F sz − F tz

F dz F tz

F tz = k t (z us − z r ) + c t ( ˙ z us − z ˙ r ) F sz

F sz = F k (.) + F d (.)

F k (.) F d (.)

• F k (.)

z def = z s − z us

F k = k s z def

k s

• F d (.)

F d (.) = F d ( ˙ z s − z ˙ us )

F d (.) = F d ( ˙ z s − z ˙ us , u) u

F d (.)

Références

Documents relatifs

The documents may come from teaching and research institutions in France or abroad, or from public or private research centers.. L’archive ouverte pluridisciplinaire HAL, est

The documents may come from teaching and research institutions in France or abroad, or from public or private research centers.. L’archive ouverte pluridisciplinaire HAL, est

The documents may come from teaching and research institutions in France or abroad, or from public or private research centers.. L’archive ouverte pluridisciplinaire HAL, est

The documents may come from teaching and research institutions in France or abroad, or from public or private research centers.. L’archive ouverte pluridisciplinaire HAL, est

The documents may come from teaching and research institutions in France or abroad, or from public or private research centers.. L’archive ouverte pluridisciplinaire HAL, est

The documents may come from teaching and research institutions in France or abroad, or from public or private research centers.. L’archive ouverte pluridisciplinaire HAL, est

The documents may come from teaching and research institutions in France or abroad, or from public or private research centers.. L’archive ouverte pluridisciplinaire HAL, est

The documents may come from teaching and research institutions in France or abroad, or from public or private research centers.. L’archive ouverte pluridisciplinaire HAL, est