The system is $$\frac{d x}{d t} =A(t) x,\quad A(t)=(a_{ij}(t))_{n\times n}$$
$ \Phi(t)$ is the fundamental solution of the system. If zero solution is asymptotically stable, How to prove $$ \lim_{t \to +\infty} \|\Phi(t)\|=0 $$
I know the conclusion can prove the assumption. But I can't prove the above proposition by myself.
Asymptotic Stability of zero solution:
Suppose $x(t,t_0, x_0)=\Phi(t)\Phi^{-1}(t_0)x_0$ is the solution of the system, $$\forall \varepsilon >0, \exists \delta = \delta(\varepsilon), s.t. \|x_0\|< \delta \ \&\ t>t_0, \|x(t,t_0, x_0)\| \leq \varepsilon . $$
\|rather than||. – joriki Jan 03 '23 at 11:45