Guyan, R.J., 1965, Reduction of stiffness and mass matrices, AIAA Journal, 3, p. 380.
Hall, L.D., and Mba, D., 2004, Diagnosis of continuous rotor–stator rubbing in large scale turbine units using acoustic emissions. Ultrasonic, 41(9), 765-773.
Han, Y. Song, Y.H., 2003, Condition monitoring techniques for electrical equipment-a literature survey. IEEE Transactions on Power Delivery, 18(1), 4- 13
Hori, Y., 1959, A theory of oil whip, Trans. ASME, Journal of Applied Mechanics, 26(2), 189-198.
Hurty, W.C., 1960, Vibrations of structural systems by component mode synthesis, J. Engrg. Mechs. Div. Proc. ASCE, 86, EM4, 51-69.
iSTRDYN: (DynaTech Software LLC) - Commercial 2-D Axis-symmetric finite element solver. (http://www.istrdyn.com).
Jeffcott, H.H., 1919, The lateral vibration of loaded shafts in neighbourhood of a whirling speed: the effect of want of balance. Philosophical Magazine, Ser. 6, 37, 304-314.
Jenny, R., 1980, Labyrinths as a cause of self-excited rotor oscillations in centrifugal compressors. Sulzer Technical Review, 4, 149-156.
Kapitsa, P.L., 1939, Ustoichivost I perekhod cherez kriticheskie oboroty bistro vrash-chayushchikhsya rotorov pri nalichii treniya, Zhurnal Technicheskoi fiziki, IX, Vypusk 2. (Stability and transition through critical speeds of high-speed rotors sunject to friction, J. Tech. Phys., IX, No. 2.
Kimball, A. L., 1924, Internal friction theory of shaft whirling, General Electric Review, 27(4), 244-251.
Kollmann, F.G., 1962, Experimentelle und theoretische Untersuchen über die Kritischen drezahlen flüssigkeits-gefullter Hohlkörper, Forschung auf dem Gebiete des Ingerieurwesens, 28(4), 115-123 and (5), 147-153.
Krämer E., 1993, Dynamics of Rotors and Foundations, Springer-Verlag, New York.
Kuipers, M., 1964, On the stability of a flexibly mounted rotating cylinder partially filled with liquid. Applied Scientific Research, A13, 121-137.
Lalanne, M., and Ferraris, G., 1998, Rotordynamics Prediction In Engineering, Wiley: NY.
Lee C.-W., 1993, Vibration Analysis of Rotors, Kluwer Academic Publishers, London.
Lewis, F. M., 1932, Vibrations during acceleration through a critical speed, Trans. ASME, 54(3), 253-261.
Lipovszky, G., Solyomvari, K. and Varga, G., Vibration Testing of Machines and their Maintenance, Elsevier, 1990
Loewy R.G. and Piarulli, V.T., Dynamics of Rotating Shafts, The Shock and Vibration Information Center, 1969
Lund, J.W., 1964, Spring and damping coefficients for the tilting pad journal bearing, ASLE Transations, 7, 342-352.
Lund, J.W., 1974, Stability and damped critical speed of a flexible rotor in fluid-film bearings, Trans. ASME, J. Eng. Ind., 96(2), 509-517.
Lund, J.W., 1987, Review of the concept of dynamic coefficients for fluid film journal bearings. Journal of Tribology, 109, 37-41.
Lund, J.W. and Orcutt, F.K., 1967, Calculation and experiments on the unbalance response of a flexible rotor, Trans. ASME, J. Eng. Ind., 89(4), 785-795.
Mahrenholtz O. (editor), 1984, Dynamics of Rotors; Stability and System Identification, International Center for Mechanical Science, NY.
Mitchell, J.S., 1993, An Introduction to Machinery Analysis and Monitoring, PannWell Books, Tulsa, Oklahoma.
Mitropolskii, Y.A., 1965, Problems of Asymptotic Theory of Nonstationary Vibrations, Israel Program for Science Translation, Jerusalem.
Muszynska, A, 2005, Rotordynamics, Series: Dekker Mechanical Engineering, Vol. 188, CRC Press.
Myklestad, N. O., 1944, A new method of calculating natural modes of uncoupled bending vibrations. Journal of. Aeronautical Science, 11(2), 153-162.
NASTRAN ROTORDYNAMICS: Simulates the effects of rotating components for design and analysis. (http://www.mscsoftware.com/assets/3064_NA2004NOVZROTDZLTDAT.pdf).
Natanzon, V.Ya., 1952, Dvizhenie gibkogo vala na kriticheskoi skotosti, Sbornik Dinamika aviadvigatelei, Oborongiz, No. 8. (Movement of a flexible shaft at critical speed, Symposium on Aircraft Engine Dynamics, Oborongiz, No. 8.
Nelson, F.C. and McVaugh J.M., 1976, The dynamics of rotor bearing systems using finite elements, Trans. ASME, J. Eng. Ind., 98(2), 593-600.
Nelson, H.D., 2003, A brief history of early rotor dynamics, Sound and Vibration, June.
Newkirk, B.L., 1924, Shaft whipping, General Electric Review, 27(3), 169-178.
Newkirk, B.L., and Taylor, H.D., 1925, Shaft whirling due to oil action in journal bearings, Gen. Electric Rev., 28(7), 559-568.
Nikolai, E.L., 1937, K teorii gibkogo vala, Trud Leningr. Ind. Inst., No. 6, Razdelenie Fiziko-Matematicheskikh Nauk, Vypusk 3. (The theory of a flexible shaft, Trans. Leningr. Industr. Inst., No. 6, Department of Physico-Mathematical Sciences, No.3.
Norton, M.P., 1989. Fundamentals of Noise and Vibration Analysis for Engineers, Cambridge University Press, London.
OzWatch: Condition based management of rotating machinery. (http://www.tuiindustries.com.au).
Parsons, R.H., 1948, The Steam Turbine and other Inventions of Sir Charles Parsons, OM. Lomgman, Green and Co.
Prandtl, L., 1918, Beitrage zur Frage der Kritischen Drehzahlen, Dinglers Polytechn. Journal, 333, 179-182.
Prohl, M.A., 1945, A general method for calculating the critical speeds of flexible rotors, J. Appl. Mech., 12(3), 142-148.
Rankine, W. J. M., 1869, On the centrifugal force of rotating shaft. The Engineer, 27, p. 249.
Rao J.S., 1996, Rotor Dynamics, Third edition, New Age, New Delhi.
Rao, J. S., 2000, Vibratory Condition Monitoring of Machines, Narosa Publishing House, New Delhi.
Rathbone, T.C., 1929, Turbine vibration and balancing, ASME Trans., 51, Paper APM-51-23.
Rieger N.F., 1977, Vibrations of Rotating Machinery, The Vibration Institute, Clarendon Hills, Illionis.
Rieger N.F., 1982, Vibrations of Rotating Machinery, Pt. I: Rotor-Bearing Dynamics, The Vibration Institute, Clarendon Hills, IL, Sec. 16.
Rieger N.F., 1986, Balancing of Rigid and Flexible Rotors, Shock and Vibration Information Center.
Robert B.M., 2003, Rotating Machinery: Practical Solutions to Unbalance and Misalignment, CRC Press.
Robert D. Finch and Ben H. Jansen, 1993, Acoustic signatures: From natural to systems science (A), The Journal of the Acoustical Society of America, 93(4), p. 2279.
ROTECH: Engineering design and analysis in lateral and torsional rotordynamics, hydrodynamic bearings and seals, finite element analysis, and rotor-bearing system optimization. (http://www.rotechconsulting.com).
RSR: Rotordynamic analysis. (http://www.rsr.com/pages/rda.htm).
Ruhl, R.L. and Booker, J.F., 1972, A finite element model for distributed paramter turbogenerator system, Trans. ASME, J. Eng. Ind., 94(1), 126-132.
SAMCEF: Rotor dynamic analysis. (http://www.samcef.com/DB/brochures_files/ SAMCEF_for_Rotors.pdf).
Sato, I., 1990, Rotating machinery diagnosis with acoustic emission techniques. Electrical. Engineering Japan 2, p. 110.
Schneider, H., 1991, Balancing Technology, 4th ed., Carl Schenck Ag.,
Schweitzer, G., 1975, Stabilization of self-excited rotor vibrations by an active damper, in Dynamics of Rotors, Springer-Verlag, New York, pp. 472-493.
Schweitzer G, Bleuler, H, and Traxler, A., 2003, Active Magnetic Bearings, VDF Hochschulverlag AGan der ETH, Zurich.
Schweitzer G., Bleuler H. and Traxler A., 2003, Active Magnetic Bearings: Basics, Properties and Applications of Active Magnetic Bearings. Authors Reprint: Zürich.
Shaw, S.W., and Balachandran, B., 2008, A review of the nonlinear dynamics of mechanical systems in year 2008, The Japan Society of Mechanical Engineers, Journal of System Design and Dynamics, 2(3), 611-640.