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@@ -4754,6 +4754,125 @@ for defect classification of TFT–LCD panels.pdf}
   file = {/home/danesabo/Zotero/storage/A6FPHV6L/Li et al. - 2024 - Synthetic Lagrangian turbulence by generative diff.pdf}
 }
 
+@incollection{liuMultiobjectiveNonlinearIdentification2001,
+  title = {Multiobjective {{Nonlinear Identification}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {77--100},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_4},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_4},
+  urldate = {2025-04-07},
+  abstract = {The identification of nonlinear systems can be posed as a nonlinear functional approximation problem. From the Weierstrass Theorem (Powell, 1981) and the Kolmogorov theorem (Sprecher, 1965) in approximation theory, it is shown that the polynomial and many other approximation schemes can approximate a continuous function arbitrarily well. In recent years, a number of nonlinear system identification approaches, particularly identification using neural networks, based on the universal approximation theorem (Cybenko, 1989), are applications of a similar mathematical approach.},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
+@incollection{liuNeuralControlApplication2001,
+  title = {Neural {{Control Application}} to {{Combustion Processes}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {179--192},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_9},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_9},
+  urldate = {2025-04-07},
+  abstract = {Combustion processes exist in many applications related to power generation, heating and propulsion; for example, steam and gas turbines, domestic and industrial burners, and jet and ramjet engines. The characteristics of these processes include not only several interacting physical phenomena but also a wide variety of dynamic behaviour. In terms of their impact on system performance, pressure oscillations are of most significance. In some applications, pressure oscillations are undesirable since they result in excessive vibration, causing high levels of acoustic noise and in extreme cases mechanical failure. In the frequency domain, the pressure is characterised by dominant peaks at discrete frequencies which correspond to the acoustic modes of the combustion chamber.},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
+@incollection{liuNeuralNetworks2001,
+  title = {Neural {{Networks}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {1--25},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_1},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_1},
+  urldate = {2025-04-07},
+  abstract = {The field of neural networks has its roots in neurobiology. The structure and functionality of neural networks has been motivated by the architecture of the human brain. Following the complex neural architecture, a neural network consists of layers of simple processing units coupled by weighted interconnections. With the development of computer technology, significant progress in neural network research has been made. A number of neural networks have been proposed in recent years.},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
+@incollection{liuNonlinearAdaptiveNeural2001,
+  title = {Nonlinear {{Adaptive Neural Control}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {125--141},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_6},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_6},
+  urldate = {2025-04-07},
+  abstract = {Neural networks are capable of learning and reconstructing complex nonlinear mappings and have been widely studied by control researchers in the design of control systems. A large number of control structures have been proposed, including supervised control (Werbos, 1990), direct inverse control (Miller et al., 1990), model reference control (Narendra and Parthasarathy, 1990), internal model control (Hunt and Sbararo, 1991), predictive control (Hunt et al., 1992; Willis et al., 1992), gain scheduling (Guez et al., 1988), optimal decision control (Fu, 1970), adaptive linear control (Chi et al., 1990), reinforcement learning control (Anderson, 1989; Barto, 1990), indirect adaptive control (Narendra and Parthasarathy, 1990; Liu et al., 1999a) and direct adaptive control (Polycarpou and Ioannou, 1991; Sanner and Slotine, 1992; Karakasoglu et al., 1993; Sadegh, 1993; Lee and Tan, 1993). The principal types of neural networks used for control problems are the multilayer perceptron neural networks with sigmoidal units (Psaltis et al., 1988; Miller et al., 1990; Narendra and Parthasarathy, 1990) and the radial basis function neural networks (Powell, 1987; Niranjan and Fallside, 1990; Poggio and Girosi, 1990a).},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
+@book{liuNonlinearIdentificationControl2001,
+  title = {Nonlinear {{Identification}} and {{Control}}},
+  author = {Liu, G. P.},
+  editor = {Grimble, Michael J. and Johnson, Michael A.},
+  editortype = {redactor},
+  date = {2001},
+  series = {Advances in {{Industrial Control}}},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5},
+  url = {http://link.springer.com/10.1007/978-1-4471-0345-5},
+  urldate = {2025-04-07},
+  isbn = {978-1-4471-1076-7 978-1-4471-0345-5},
+  keywords = {Adaptive control,artificial intelligence,complexity,Control,Control Engineering,development,genetic algorithms,Identification,learning,model,Modelling,Neural Networks,Nonlinear control,Wavelets},
+  file = {/home/danesabo/Zotero/storage/UNUL6UKU/Liu - 2001 - Nonlinear Identification and Control.pdf}
+}
+
+@incollection{liuNonlinearPredictiveNeural2001,
+  title = {Nonlinear {{Predictive Neural Control}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {143--161},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_7},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_7},
+  urldate = {2025-04-07},
+  abstract = {Predictive control is now widely used by industry and a large number of implementation algorithms, including generalised predictive control (Clarke et al., 1987), dynamic matrix control (Cutler and Ramaker, 1980), extended prediction self-adaptive control (Keyser and Cauwenberghe, 1985), predictive function control (Richalet et al., 1987), extended horizon adaptive control (Ydstie, 1984) and unified predictive control (Soeterboek et al., 1990), have appeared in the literature. Most predictive control algorithms are based on a linear model of the process. However, industrial processes usually contain complex nonlinearities and a linear model may be acceptable only when the process is operating around an equilibrium point. If the process is highly nonlinear, a nonlinear model will be necessary to describe the behaviour of the process.},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
+@incollection{liuRecursiveNonlinearIdentification2001,
+  title = {Recursive {{Nonlinear Identification}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {53--76},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_3},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_3},
+  urldate = {2025-04-07},
+  abstract = {The system identification procedure mainly consists of model structure selection and parameter estimation. The former is concerned with selecting which class of mathematical operator is to be used as a model. The latter is concerned with an estimation algorithm and usually requires input output data from the process, a class of models to be identified and a suitable identification criterion. A number of techniques have been developed in recent years for model selection and parameter estimation of nonlinear systems. Forward and backward regression algorithms were analysed in Leontaritis and Billings (1987). Stepwise regression was used in Billings and Voon (1986) and a class of orthogonal estimators were discussed in Korenberg et al. (1988). Algorithms with the objective of saving memory and allowing fast computation have been proposed in Chen and Wigger (1995). Methods to determine the a priori structural identifiability of a model have also been studied (Ljung and Glad, 1994). A survey of existing techniques of nonlinear system identification prior to the 1980s is given in Billings (1980), a survey of the structure detection of input output nonlinear systems is given in Haber and Unbehauen (1990) and a survey of nonlinear black-box modelling in system identification can be found in Sjoberg et al. (1995).},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
 @online{liuSecurebyConstructionSynthesisCyberPhysical2022,
   title = {Secure-by-{{Construction Synthesis}} of {{Cyber-Physical Systems}}},
   author = {Liu, Siyuan and Trivedi, Ashutosh and Yin, Xiang and Zamani, Majid},
@@ -4769,6 +4888,57 @@ for defect classification of TFT–LCD panels.pdf}
   file = {/home/danesabo/Zotero/storage/9XUH6A6I/Liu et al. - 2022 - Secure-by-Construction Synthesis of Cyber-Physical.pdf}
 }
 
+@incollection{liuSequentialNonlinearIdentification2001,
+  title = {Sequential {{Nonlinear Identification}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {27--52},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_2},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_2},
+  urldate = {2025-04-07},
+  abstract = {The identification of nonlinear systems using neural networks has become a widely studied research area in recent years. System identification mainly consists of two steps: the first is to choose an appropriate identification model and the second is to adjust the parameters of the model according to some adaptive laws so that the response of the model to an input signal can approximate the response of the real system to the same input. Since neural networks have good approximation capabilities and inherent adaptivity features, they provide a powerful tool for identification of systems with unknown nonlinearities (Antsaklis, 1990; Miller et al. 1990).},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
+@incollection{liuVariableStructureNeural2001,
+  title = {Variable {{Structure Neural Control}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {163--178},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_8},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_8},
+  urldate = {2025-04-07},
+  abstract = {Variable structure control with sliding modes was first proposed in the early 1950s (Utkin, 1964; Ernelyanov, 1967; Itkis, 1976) and has subsequently been used in the design of a wide spectrum of system types including linear and nonlinear systems, large-scale and infinite-dimensional systems, and stochastic systems. It has also been applied to a wide variety of engineering systems. The most distinguished feature of variable structure control based on sliding modes is the ability to improve the robustness of systems which are subject to uncertainty. If, however, the uncertainty exceeds the values allowed for the design, the sliding mode cannot be attained and this results in an undesirable response (Utkin, 1964). In the continuous-time case this problem was solved by combining variable structure and adaptive control (Slotine and Li, 1991), but this requires that all the system variables are available and can be measured. This case has also been discussed for linear discrete systems using input output plant models (Furuta, 1990, 1993; Hung et al., 1993; Pan and Furuta, 1995) and for nonlinear discrete systems where the input output model is unknown (Liu et al., 1997b. 1999b).},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
+@incollection{liuWaveletBasedNonlinear2001,
+  title = {Wavelet {{Based Nonlinear Identification}}},
+  booktitle = {Nonlinear {{Identification}} and {{Control}}: {{A Neural Network Approach}}},
+  author = {Liu, G. P.},
+  editor = {Liu, G. P.},
+  date = {2001},
+  pages = {101--124},
+  publisher = {Springer},
+  location = {London},
+  doi = {10.1007/978-1-4471-0345-5_5},
+  url = {https://doi.org/10.1007/978-1-4471-0345-5_5},
+  urldate = {2025-04-07},
+  abstract = {The approximation of general continuous functions by nonlinear networks has been widely applied to system modelling and identification. Such approximation methods are particularly useful in the black-box identification of nonlinear systems where very little a priori knowledge is available. For example, neural networks have been established as a general approximation tool for fitting nonlinear models from input output data on the basis of the universal approximation property of such networks. There has also been considerable recent interest in identification of general nonlinear systems based on radial basis networks (Poggio and Girosi, 1990a,b), fuzzy sets and rules (Zadeh, 1994), neural-fuzzy networks (Brown and Harris, 1994; Wang et al., 1995) and hining hyperplanes (Breiman, 1993).},
+  isbn = {978-1-4471-0345-5},
+  langid = {english}
+}
+
 @article{lopez-miguelPLCverifStatusFormal2022,
   title = {{{PLCverif}}: {{Status}} of a {{Formal Verification Tool}} for {{Programmable Logic Controller}}},
   shorttitle = {{{PLCverif}}},
@@ -6275,6 +6445,23 @@ Insights from the Social Sciences.pdf}
   file = {/home/danesabo/Zotero/storage/YX23UQKG/Powell - THE OPTIMIZING-SIMULATOR MERGING SIMULATION AND O.pdf}
 }
 
+@book{poznyakDifferentialNeuralNetworks2001,
+  title = {Differential Neural Networks for Robust Nonlinear Control: Identification, State Estimation and Trajectory Tracking},
+  shorttitle = {Differential Neural Networks for Robust Nonlinear Control},
+  author = {Poznyak, Alexander S.},
+  namea = {Yu, Wen and Sanchez, Edgar N.},
+  nameatype = {collaborator},
+  date = {2001},
+  edition = {1st ed.},
+  publisher = {World Scientific},
+  location = {Singapore ;},
+  abstract = {This book deals with continuous time dynamic neural networks theory applied to the solution of basic problems in robust control theory, including identification, state space estimation (based on neuro-observers) and trajectory tracking. The plants to be identified and controlled are assumed to be a priori unknown but belonging to a given class containing internal unmodelled dynamics and external perturbations as well. The error stability analysis and the corresponding error bounds for different problems are presented. The effectiveness of the suggested approach is illustrated by its ap},
+  isbn = {9786611956738},
+  langid = {english},
+  pagetotal = {455},
+  keywords = {Neural networks (Computer science),Nonlinear control theory}
+}
+
 @report{prestlBMWActiveCruise2000,
   type = {SAE Technical Paper},
   title = {The {{BMW Active Cruise Control ACC}}},