[1] Small M: Temporal evolution of nonlinear dynamics in ventricular arrhythmia; International Journal of Bifurcation and Chaos 2001; 11: 2531–2548.
[2] Lombardi F: Chaos theory, heart rate variability, and arrhythmic mortality; American Heart Association- Circulation 2000; 101: 8–10.
[3] Guyton A; Textbook of Medical Physiology: 8th Edition, Saunders; 1991.
[4] Timo L; Correlation properties and complexity of preoperative RR interval dynamics in coronary artery bypass surgery patients; Anaesthesiology 2000; 93: 69–80.
[5] Korpelainen J: Dynamic behavior of heart rate in ischemic stroke; American Heart Association-Stroke 1999; 30: 1008–1013.
[6] Small M: Uncovering nonlinear structure in human ECG recordings; Chaos Solitons & Fractals 2002; 13: 1755-1762.
[7] Haefner J; Modelling Biological Systems: Principles and Applications; Chapman and Hall; 1996.
[8] Small M; Nonlinear analysis of human ECG during sinus rhythm and arrhythmia; Computers in Cardiology 2000; 27: 147 150.
[9] Minami K; Real time discrimination of ventricular tachyarrhythmia with Fourier transform neural network; IEEE Trans on Biomedical Engineering 1999; 46: 179–185.
[10] Eberhart R; Chaos theory for the biomedical engineer; IEEE Eng in Med and Biology 1998; 8:41–45.
[11] Small M; Testing time series for nonlinearity; Statistic and Computing 2001; 11:257–268.
[12] Povinelli R; Are nonlinear ventricular arrhythmia characteristics lost as signal duration decreases?; Proc Computers in Cardiology 2002; 29: 221-224.
[13] Parker T; Chaos: a tutorial for engineers; Proc of IEEE 1987; 75(8): 982–1008.
[14] Small M; Surrogate test for pseudo periodic time series data; Physics Review Letters 2001; 87(18): 1–4.