2 (e) Consider the flow (IR" {etA}) generated by the differential egration X = Ax, where ACM(H, IR). (a) When is ō Poincare stable? (4) when is ō Lyapunov stable! the nt 2 (e) Consider the flow (IR" {etA}) generated by the differential egration X = Ax, where ACM(H, IR). (a) When is ō Poincare stable? (4) when is ō Lyapunov stable! the nt

Calculus For The Life Sciences
2nd Edition
ISBN:9780321964038
Author:GREENWELL, Raymond N., RITCHEY, Nathan P., Lial, Margaret L.
Publisher:GREENWELL, Raymond N., RITCHEY, Nathan P., Lial, Margaret L.
Chapter9: Multivariable Calculus
Section9.3: Maxima And Minima
Problem 20E
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Question
2
(e) Consider the flow (IR" {etA}) generated by the differential
egration X = Ax, where ACM(H, IR).
(a)
When is ō Poincare stable?
(4) when is ō Lyapunov stable!
the
nt
Transcribed Image Text:2 (e) Consider the flow (IR" {etA}) generated by the differential egration X = Ax, where ACM(H, IR). (a) When is ō Poincare stable? (4) when is ō Lyapunov stable! the nt
2
(e) Consider the flow (IR" {etA}) generated by the differential
egration X = Ax, where ACM(H, IR).
(a)
When is ō Poincare stable?
(4) when is ō Lyapunov stable!
the
nt
Transcribed Image Text:2 (e) Consider the flow (IR" {etA}) generated by the differential egration X = Ax, where ACM(H, IR). (a) When is ō Poincare stable? (4) when is ō Lyapunov stable! the nt
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