We propose a new method to construct an optimal linear coherent quantum controller based on an evolutionary optimization method, namely a differential evolution algorithm. The aim is to provide a straightforward approach to deal with both nonlinear and nonconvex constraints arising in the coherent quantum controller synthesis. The solution to this control problem involves a complex algebraic Riccati equation, which corresponds to a physical realizability condition for the coherent quantum controller. The proposed method is demonstrated through an example of an entanglement control problem for a quantum network comprising two cascaded optical parametric amplifiers
In this paper we introduce a network synthesis theorem for linear dynamical quantum stochastic syste...
International audienceQuantum versions of control problems are often more difficult than their class...
Recent advances in quantum and nano-technology have provided a great impetus for research in the qua...
In this thesis, we present new systematic methods to synthesize non-decentralized and decentralized...
The purpose of this paper is to present a theoretic and numerical study of utilizing squeezing and p...
This paper is concerned with a linear fractional representation approach to the synthesis of linear ...
This paper is concerned with coherent quantum linear quadratic Gaussian (CQLQG) control. The problem...
Based on a recently developed notion of physical realizability for quantum linear stochastic systems...
Abstract: This paper is concerned with constructing an optimal controller in the coherent quantum Li...
The purpose of this paper is to study and design direct and indirect couplings for use in coherent f...
Quantum versions of control problems are typically more difficult than their classical counterparts ...
This thesis is concerned with robust performance analysis and coherent quantum control design for li...
This paper considers a coherent LQG control problem for a class of linear quantum systems which can ...
The purpose of this paper is to develop a synthesis theory for linear dynamical quantum stochastic s...
This paper surveys some recent results on the feedback control of quantum linear systems and the rob...
In this paper we introduce a network synthesis theorem for linear dynamical quantum stochastic syste...
International audienceQuantum versions of control problems are often more difficult than their class...
Recent advances in quantum and nano-technology have provided a great impetus for research in the qua...
In this thesis, we present new systematic methods to synthesize non-decentralized and decentralized...
The purpose of this paper is to present a theoretic and numerical study of utilizing squeezing and p...
This paper is concerned with a linear fractional representation approach to the synthesis of linear ...
This paper is concerned with coherent quantum linear quadratic Gaussian (CQLQG) control. The problem...
Based on a recently developed notion of physical realizability for quantum linear stochastic systems...
Abstract: This paper is concerned with constructing an optimal controller in the coherent quantum Li...
The purpose of this paper is to study and design direct and indirect couplings for use in coherent f...
Quantum versions of control problems are typically more difficult than their classical counterparts ...
This thesis is concerned with robust performance analysis and coherent quantum control design for li...
This paper considers a coherent LQG control problem for a class of linear quantum systems which can ...
The purpose of this paper is to develop a synthesis theory for linear dynamical quantum stochastic s...
This paper surveys some recent results on the feedback control of quantum linear systems and the rob...
In this paper we introduce a network synthesis theorem for linear dynamical quantum stochastic syste...
International audienceQuantum versions of control problems are often more difficult than their class...
Recent advances in quantum and nano-technology have provided a great impetus for research in the qua...