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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 (.)

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la RCP n’est pas forcément utilisée comme elle devrait l’être, c'est-à-dire un lieu de coordination et de concertation mais elle peut être utilisée par certains comme un lieu

The change of sound attenuation at the separation line between the two zones, to- gether with the sound attenuation slopes, are equally well predicted by the room-acoustic diffusion