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[285] Y. Sun, E. Denimal, J. Yuan, L.c. Salles, Geometric design of friction ring dampers in blisks using nonlinear modal analysis and kriging surrogate model, Struct. Multidiscip. Optim. 68 (2022).

[286] A. Lupini, B.I. Epureanu, A friction-enhanced tuned ring damper for bladed disks, J. Eng. Gas Turb. Power 143 (1) (2020) 011002.

[287] Y. Sun, J. Yuan, L. Pesaresi, L. Salles, Nonlinear vibrational analysis for integrally bladed disk using frictional ring damper, J. Phys. Conf. Ser. 1106 (2018) 012026.

[288] W. Tang, S. Baek, B.I. Epureanu, Reduced-order models for blisks with small and large mistuning and friction dampers, J. Eng. Gas Turb. Power 139 (1) (2017).

[289] C. Gastaldi, T.M. Berruti, M.M. Gola, The effect of surface finish on the proper functioning of underplatform dampers, J. Vib. Acoust. 142 (5) (2020) 051103.

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[292] X. Delaune, E. de Langre, C. Phalippou, A probabilistic approach to the dynamics of wear tests, J. Trib. 122 (4) (2000) 815-821.

[293] Q. Gao, Y. Fan, Y. Wu, L. Li, D. Zhang, Insight into the influence of frictional heat on the modal characteristics and interface temperature of frictionally damped turbine blades, J. Sound Vib. (2024) 18410.

[294] L. Gallego, B. Fulleringer, S. Deyber, D. Nelias, Multiscale computation of fretting wear at the blade/disk interface, Tribol. Int. 43 (4) (2010) 708-718.

[295] J. Gross, P. Buhl, U. Weber, X. Schuler, M. Krack, Effect of creep on the nonlinear vibration characteristics of blades with interlocked shrouds, Int. J. Non-Linear Mech. 99 (2018) 240-246.

[296] E. Petrov, Analysis of sensitivity and robustness of forced response for nonlinear dynamic structures, Mech. Syst. Signal Process. 23 (1) (2009) 68-86.

[297] M. Krack, L. Panning, J. Wallaschek, C. Siewert, A. Hartung, Robust design of friction interfaces of bladed disks with respect to parameter uncertainties, 2012, ASME. Paper No.GT2012-68578.

[298] E. Ferhatoglu, S. Zucca, On the non-uniqueness of friction forces and the systematic computation of dynamic response boundaries for turbine bladed disks with contacts, Mech. Syst. Signal Process. 160 (2021) 107917.

[299] E. Ferhatoglu, C. Gastaldi, D. Botto, S. Zucca, An experimental and computational comparison of the dynamic response variability in a turbine blade with under-platform dampers, Mech. Syst. Signal Process. 172 (2022) 108987.

[300] E. Ferhatoglu, D. Botto, S. Zucca, Parametric study for model calibration of a friction-damped turbine blade with multiple test data, Nonlinear Dynam. (2024) 1-27.

[301] E. Ferhatoglu, J. Groß, M. Krack, Frequency response variability in friction-damped structures due to non-unique residual tractions: Obtaining conservative bounds using a nonlinear-mode-based approach, Mech. Syst. Signal Process. 201 (2023) 110651.

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[303] E. Ferhatoglu, S. Zucca, Determination of periodic response limits among multiple solutions for mechanical systems with wedge dampers, J. Sound Vib. 494 (2021) 115900.

[304] T. Butlin, G. Spelman, P. Ghaderi, W. Midgley, R. Umehara, Predicting response bounds for friction-damped gas turbine blades with uncertain friction coupling, J. Sound Vib. 440 (2019) 399-411.

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[306] J. Liu, L. Li, Y. Fan, A comparison between the friction and piezoelectric synchronized switch dampers for blisks, J. Intell. Mater. Syst. Struct. 29 (12) (2018) 2693-2705.

[307] Y. Wu, L. Li, Y. Fan, S. Zucca, C. Gastaldi, H. Ma, Design of dry friction and piezoelectric hybrid ring dampers for integrally bladed disks based on complex nonlinear modes, Comput. Struct. 233 (2020) 106237.

[308] Y. Zhong, Z. Zhang, X. Ma, Vibration suppression of blisk using piezoelectric shunt damping with negative capacitance, in: 2022 Global Reliability and Prognostics and Health Management, PHM-Yantai, IEEE, 2022, pp. 1-5.

[309] Y. Wu, L. Li, Y. Fan, J. Liu, Q. Gao, A linearised analysis for structures with synchronized switch damping, IEEE Access 7 (2019) 133668-133685.

[310] C. Sugino, M. Ruzzene, A. Erturk, Design and analysis of piezoelectric metamaterial beams with synthetic impedance shunt circuits, IEEE/ASME Trans. Mechatronics 23 (5) (2018) 2144-2155.

[311] H. Ji, Y. Guo, J. Qiu, Y. Wu, C. Zhang, C. Tao, A new design of unsymmetrical shunt circuit with negative capacitance for enhanced vibration control, Mech. Syst. Signal Process. 155 (2021) 107576.

[312] H. Yu, K.W. Wang, Vibration suppression of mistuned coupled-blade-disk systems using piezoelectric circuitry network, J. Vib. Acoust. 131 (2) (2009) 021008.

[313] M. Lasen, D. Dini, C. Schwingshackl, Experimental control of frictional contact behaviour via piezoelectric actuation, Mech. Syst. Signal Process. 211 (2024) 111198.

[314] Y. Wu, L. Li, Y. Fan, H. Ma, W. Wang, J.-L. Christen, M. Ichchou, Design of semi-active dry friction dampers for steady-state vibration: sensitivity analysis and experimental studies, J. Sound Vib. 459 (2019) 114850.

[315] Y. Wu, J. Chen, Y. Fan, L. Li, Z. Jiang, An MFC-based friction damper with adjustable normal force: conception, modelling, and experiment, Mech. Syst. Signal Process. 215 (2024) 111450.

[316] M. Lasen, D. Dini, C. Schwingshackl, Experimental control of frictional contact behaviour via piezoelectric actuation, Mech. Syst. Signal Process. 211 (2024) 111198.

[317] J. Ma, S. Dong, G. Chen, P. Peng, L. Qian, A data-driven normal contact force model based on artificial neural network for complex contacting surfaces, Mech. Syst. Signal Process. 156 (2021) 107612.

[318] A. Dong, Z. Du, Z. Yan, Friction modeling and compensation for haptic master manipulator based on deep Gaussian process, Mech. Mach. Theory 166 (2021) 104480.

[319] H. Peng, N. Song, F. Li, S. Tang, A mechanistic-based data-driven approach for general friction modeling in complex mechanical system, J. Appl. Mech. 89 (7) (2022) 071005.

[320] S. Kelly, Data-Driven Models of Blisk Structures (Ph.D. thesis), University of Michigan, 2023.

[321] Y. Wu, L. Li, Y. Fan, Nonlinear modal electromechanical coupling factor for piezoelectric structures containing nonlinearities, Chin. J. Aeronaut. (2022).

[322] Q. Gao, Y. Fan, Y. Wu, L. Li, A harmonic balance-based method to predict nonlinear forced response and temperature rise of dry friction systems including frictional heat transfer, Nonlinear Dynam. (2023) 1-29.

[323] C. Berthold, J. Gross, C. Frey, M. Krack, Development of a fully-coupled harmonic balance method and a refined energy method for the computation of flutter-induced limit cycle oscillations of bladed disks with nonlinear friction contacts, J. Fluids Struct. 102 (2021) 103233.

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[325] M. Scheel, Nonlinear modal testing of damped structures: Velocity feedback vs. phase resonance, Mech. Syst. Signal Process. 165 (2022) 108305.

[326] L. Renson, D.A. Barton, S.A. Neild, Experimental tracking of limit-point bifurcations and backbone curves using control-based continuation, Int. J. Bifurcation Chaos 27 (01) (2017) 1730002.

[327] G. Abeloos, L. Renson, C. Collette, G. Kerschen, Stepped and swept control-based continuation using adaptive filtering, Nonlinear Dynam. 104 (4) (2021) 3793-3808.

[328] T. Karağaçlı, H.N. Özgüven, Experimental modal analysis of nonlinear systems by using response-controlled stepped-sine testing, Mech. Syst. Signal Process. 146 (2021) 107023.

[329] A. Koyuncu, T. Karağaçlı, M. Şahin, H.N. Özgüven, Experimental modal analysis of nonlinear amplified piezoelectric actuators by using response-controlled stepped-sine testing, Exp. Mech. 62 (9) (2022) 1579-1594.

[330] S. Schwarz, J. Reil, J. Gross, A. Hartung, D. Rittinger, M. Krack, Friction saturated limit cycle oscillations—Test rig design and validation of numerical prediction methods, J. Eng. Gas Turb. Power 146 (5) (2024).

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[332] J. Gross, V. Gupta, C. Berthold, M. Krack, A new paradigm for multi-fidelity continuation using parallel model refinement, Comput. Methods Appl. Mech. Engrg. 423 (2024) 116860.