We develop a behavioral approach to linear, time-varying, differential-algebraic systems. The analysis is "almost everywhere" in the sense that the statements hold on R \ T, where T is a discrete set. Controllability, observability, and autonomy are introduced and related to the behavior of the system. Classical results on the behavior of time-invariant systems are studied in the context of time-varying systems
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...
We develop a behavioral approach to linear, time-varying, differential-algebraic systems. The analysi...
We develop a behavioral approach to linear, time-varying, differential-algebraic systems. The analysi...
We develop a behavioural approach to linear, time-varying, differential algebraic systems. The analy...
We develop a behavioural approach to linear, time-varying, differential algebraic systems. The analy...
We develop a behavioural approach to linear, time-varying, differential algebraic systems. The analy...
We develop a behavioural approach to linear, time-varying, differential algebraic systems. The analy...
We introduce a behavioural approach to linear, time-varying, differential algebraic (descriptor) sys...
We introduce a behavioural approach to linear, time-varying, differential algebraic (descriptor) sys...
We introduce a behavioural approach to linear, time-varying, differential algebraic (descriptor) sys...
The development of the algebraic theory of time-varying linear systems is described. The class of sy...
The development of the algebraic theory of time-varying linear systems is described. The class of sy...
The development of the algebraic theory of time-varying linear systems is described. The class of sy...
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...
We develop a behavioral approach to linear, time-varying, differential-algebraic systems. The analysi...
We develop a behavioral approach to linear, time-varying, differential-algebraic systems. The analysi...
We develop a behavioural approach to linear, time-varying, differential algebraic systems. The analy...
We develop a behavioural approach to linear, time-varying, differential algebraic systems. The analy...
We develop a behavioural approach to linear, time-varying, differential algebraic systems. The analy...
We develop a behavioural approach to linear, time-varying, differential algebraic systems. The analy...
We introduce a behavioural approach to linear, time-varying, differential algebraic (descriptor) sys...
We introduce a behavioural approach to linear, time-varying, differential algebraic (descriptor) sys...
We introduce a behavioural approach to linear, time-varying, differential algebraic (descriptor) sys...
The development of the algebraic theory of time-varying linear systems is described. The class of sy...
The development of the algebraic theory of time-varying linear systems is described. The class of sy...
The development of the algebraic theory of time-varying linear systems is described. The class of sy...
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...
In the sequel to [A. Ilchmann and V. Mehrmann, SIAM J. Control Optim., 44 (2005), pp. 1725–1747], we...