Method for strongly nonlinear piecewise linear systems forced vibrations analysis close to superharmonic resonances is suggested. The combination of Shaw–Pierre nonlinear modes and the Rauscher's approach is the foundation of this method. The superharmonic torsional vibrations of the power transmission are analyzed by using the suggested approach. The properties of the resonance superharmonic vibrations are treated.
ZouDRaoZTaN. Coupled longitudinal-transverse dynamics of a marine propulsion shafting under superharmonic resonances. J Sound Vib2015; 346: 248–264.
4.
JiJCLeungAYT. Non-linear oscillations of a rotor-magnetic bearing system under superharmonic resonance conditions. Int J Non Lin Mech2003; 38: 829–835.
5.
HassanA. On the third superharmonic resonance in the Duffing oscillator. J Sound Vib1994; 172: 513–526.
6.
ParlitzULauterbornW. Superstructure in the bifurcation set of the Duffing equation. Phys Lett1985; 170: 351–355.
7.
ParlitzU. Common dynamical features of periodically driven strictly dissipative oscillator. Int J Bif Chaos1993; 3: 703–715.
8.
MaezawaSFurukawaS. Superharmonic resonance in piecewise-linear system (Effect of damping and stability problem). Bul JSME1973; 16: 931–941.
9.
MaezawaS. Super harmonic resonance in piecewise linear system with unsymmetrical, characteristics. Proc Fifth Int Conf Non Lin Oscil1970; 1: 401–422.
10.
BovsunovskyAPSuraceC. Considerations regarding superharmonic vibrations of a cracked beam and the variation in damping caused by the presence of the crack. J Sound Vib2005; 288: 865–886.
11.
ZhangMXiaoLQuW, et al.Damage detection of fatigue cracks under nonlinear boundary condition using subharmonic resonance. Ultrasonics2017; 77: 152–159.
12.
JiJCHansenH. On the approximate solution of a piecewise nonlinear oscillator under super-harmonic resonance. J Sound Vib2005; 283: 467–474.
13.
RosenbergRM. On normal vibrations of a general class of nonlinear dual-mode systems. ASME J Appl Mech1961; 28: 275–283.
14.
RosenbergRM. The normal modes of nonlinear n-degree-of-freedom systems. ASME J Appl Mech1962; 29: 7–14.
15.
RosenbergRM. On nonlinear vibrations of systems with many degrees-of-freedom. Adv Appl Mech1966; 9: 155–242.
16.
ManevichLMikhlinY. Periodic solutions close to rectilinear normal vibration modes. Prikl Mat Mekh1972; 36: 1051–1058.
17.
ManevichLMikhlinYPilipchukV. The method of normal oscillation for essentially nonlinear systems, Moscow: Nauka, 1989.
18.
VakakisAFRandRH. Nonlinear modes and global dynamics of a two degree of freedom nonlinear systems: I low energies and II high energies. Int J Non Lin Mech1992; 27: 861–888.
19.
VakakisAF. Non similar normal oscillations in a strongly nonlinear discrete system. J Sound Vib1992; 158: 341–361.
20.
AvramovKV. Nonlinear modes of parametric vibrations and their applications to beams dynamics. J Sound Vib2009; 322: 476–489.
21.
AvramovKV. Analysis of forced vibrations by nonlinear modes. Non Lin Dyn2008; 53: 117–127.
22.
ShawSWPierreC. Normal modes for nonlinear vibratory systems. J Sound Vib1993; 164: 58–124.
23.
ShawSWPierreCPesheckE. Modal analysis-based reduced-order models for nonlinear structures – an invariant manifolds approach. Shock Vib Dig1999; 31: 3–16.
24.
MikhlinYAvramovKV. Nonlinear normal modes for vibrating mechanical systems. Review of theoretical developments. Appl Mech Rev2010; 63: 4–20.
25.
AvramovKMihlinYu. Review of applications of nonlinear normal modes for vibrating mechanical systems. Appl Mech Rev2013; 65: 4–25.
26.
ShawSWHolmes PJ. A periodically forced piecewise linear oscillator. J Sound Vib1983; 90: 129–155.
27.
NatsiavasR. Stability and bifurcation analysis for oscillator with motion limiting constraints. J Sound Vib1990; 267: 97–102.
28.
LiGHRandRHMoonFC. Bifurcation and chaos in a forced zero stiffness impact oscillator. Int J Non Lin Mech1990; 4: 417–432.
29.
OstrovskyLAStarobinetsIM. Transitions and statistical characteristics of vibrations in a bimodal oscillator. Chaos1995; 5: 496–500.
30.
BishopRS. Impact oscillators. Phil Trans Royal Soc1994; A347: 347–351.
31.
AvramovKV. Bifurcation analysis of a vibropercussion system by the method of amplitude surfaces. Int Appl Mech2001; 38: 1151–1156.
32.
AvramovKVKarabanVN. Resonance under random vibrations of discrete dynamic systems with piecewise-linear elastic characteristics. Int Appl Mech1997; 33: 584–588.
33.
AvramovKVBelomyttsevASKarabanVN. Regions of chaotic oscillations of discrete mechanical systems with piecewise-linear elastic characteristics. Int Appl Mech1994; 30: 396–402.
34.
AvramovKRaimberdiyevT. Bifurcations behavior of bending vibrations of beams with two breathing cracks. Eng Fract Mech2017; 178: 22–38.
35.
AvramovKRaimberdiyevT. Modal asymptotic analysis of sub-harmonic and quasi-periodic flexural vibrations of beams with fatigue crack. Non Lin Dyn2017; 88: 1213–1228.
36.
ChenSCShawSW. Normal modes for piecewise linear vibratory systems. Non Lin Dyn1996; 10: 135–164.
37.
JiangDPierreCShawSW. Large amplitude non-linear normal modes of piecewise linear systems. J Sound Vib2004; 272: 869–891.
38.
UspenskyBVAvramovKV. On the nonlinear normal modes of free vibration of piecewise linear systems. J Sound Vib2014; 333: 3252–3265.
39.
UspenskyBAvramovK. Nonlinear modes of piecewise linear systems under the action of periodic excitation. Non Lin Dyn2014; 76: 1151–1156.
40.
UspenskyBAvramovK. Numerical analysis of nonlinear modes of piecewise linear systems torsional vibrations. Meccan2017; 52: 3743–3757.
41.
AvramovKVBorysiukOV. Nonlinear dynamics of one disk asymmetrical rotor supported by two journal bearings. Non Lin Dyn2012; 67: 1201–1219.
42.
BogoliubovNNMitropolskyYA. Asymptotic methods in the theory of nonlinear oscillations, New York: Gordon and Breach, 1961.
43.
TheodossiadesSNatsiavasS. Non-linear dynamics of gear-pair systems with periodic stiffness and backlash. J Sound Vib2000; 229: 287–310.
44.
VakakisAManevichLIMikhlinYV, et al.Normal modes and localization in nonlinear systems, New York: Wiley Interscience, 1996.