Transient dynamic analysis of cracked structures with multiple contact pairs using generalized HSNC

The development of efficient computational methods for cracked structures is critical in the fields of civil, mechanical, and aerospace engineering since the influence of cracks on structural dynamics can play an important role in design, prognosis, and health monitoring. The nonlinearity caused by...

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Vydáno v:	Nonlinear dynamics Ročník 96; číslo 2; s. 1115 - 1131
Hlavní autoři:	Tien, Meng-Hsuan, D’Souza, Kiran
Médium:	Journal Article
Jazyk:	angličtina
Vydáno:	Dordrecht Springer Netherlands 01.04.2019 Springer Nature B.V
Témata:	Aerospace engineering Algorithms Automotive Engineering Cantilever beams Classical Mechanics Computational efficiency Control Cracks Dynamical Systems Engineering Initial conditions Mass-spring systems Mathematical models Mechanical Engineering Nonlinear response Nonlinear systems Nonlinearity Numerical integration Numerical methods Optimization Original Paper Reduced order models Search process Steady state Switches Vibration Cracked structure Hybrid symbolic–numeric computation Reduced-order modeling Piecewise-linear nonlinearity
ISSN:	0924-090X, 1573-269X
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Abstract	The development of efficient computational methods for cracked structures is critical in the fields of civil, mechanical, and aerospace engineering since the influence of cracks on structural dynamics can play an important role in design, prognosis, and health monitoring. The nonlinearity caused by the intermittent contact on the crack surfaces typically excludes the use of fast linear methods, without which the computation of the dynamics of complex cracked structures becomes very challenging. In this paper, an efficient computational scheme for predicting both the transient and steady-state responses of cracked structures with multiple contact pairs is introduced. The new algorithm is referred to as the generalized hybrid symbolic–numeric computational (HSNC) method. The generalized HSNC method extends the original HSNC method, which was recently developed for bilinear systems, to general piecewise-linear nonlinear systems. This work also combines the HSNC with the X - X r method, a reduced-order modeling technique for cracked structures, to efficiently predict the dynamics of complex structures with cracks. The generalized HSNC approach is based on the idea that the nonlinear response of a cracked structure with multiple contact pairs can be obtained by combining linear responses of the system in each of its linear states. These linear responses can be symbolically expressed as functions of the initial conditions at starting time points in each time range where the system behaves linearly. The transition time where the system switches from one linear state to another is found using a nonlinear optimization solver with the initial values provided by an incremental search process. The method is able to individually track status of each contact pair; therefore, it can be used to predict the dynamics of the system when the crack surfaces are not completely open or closed. Moreover, both the transient and steady-state responses of complex cracked structures under various forcing conditions can be captured by the new method. The generalized HSNC method provides a flexible computational framework that is several orders of magnitude faster than traditional numerical integration methods. The dynamics of a spring–mass system and cantilever beam models that contain one crack and multiple cracks are investigated using the proposed method.
AbstractList	The development of efficient computational methods for cracked structures is critical in the fields of civil, mechanical, and aerospace engineering since the influence of cracks on structural dynamics can play an important role in design, prognosis, and health monitoring. The nonlinearity caused by the intermittent contact on the crack surfaces typically excludes the use of fast linear methods, without which the computation of the dynamics of complex cracked structures becomes very challenging. In this paper, an efficient computational scheme for predicting both the transient and steady-state responses of cracked structures with multiple contact pairs is introduced. The new algorithm is referred to as the generalized hybrid symbolic–numeric computational (HSNC) method. The generalized HSNC method extends the original HSNC method, which was recently developed for bilinear systems, to general piecewise-linear nonlinear systems. This work also combines the HSNC with the X-Xr method, a reduced-order modeling technique for cracked structures, to efficiently predict the dynamics of complex structures with cracks. The generalized HSNC approach is based on the idea that the nonlinear response of a cracked structure with multiple contact pairs can be obtained by combining linear responses of the system in each of its linear states. These linear responses can be symbolically expressed as functions of the initial conditions at starting time points in each time range where the system behaves linearly. The transition time where the system switches from one linear state to another is found using a nonlinear optimization solver with the initial values provided by an incremental search process. The method is able to individually track status of each contact pair; therefore, it can be used to predict the dynamics of the system when the crack surfaces are not completely open or closed. Moreover, both the transient and steady-state responses of complex cracked structures under various forcing conditions can be captured by the new method. The generalized HSNC method provides a flexible computational framework that is several orders of magnitude faster than traditional numerical integration methods. The dynamics of a spring–mass system and cantilever beam models that contain one crack and multiple cracks are investigated using the proposed method. The development of efficient computational methods for cracked structures is critical in the fields of civil, mechanical, and aerospace engineering since the influence of cracks on structural dynamics can play an important role in design, prognosis, and health monitoring. The nonlinearity caused by the intermittent contact on the crack surfaces typically excludes the use of fast linear methods, without which the computation of the dynamics of complex cracked structures becomes very challenging. In this paper, an efficient computational scheme for predicting both the transient and steady-state responses of cracked structures with multiple contact pairs is introduced. The new algorithm is referred to as the generalized hybrid symbolic–numeric computational (HSNC) method. The generalized HSNC method extends the original HSNC method, which was recently developed for bilinear systems, to general piecewise-linear nonlinear systems. This work also combines the HSNC with the X - X r method, a reduced-order modeling technique for cracked structures, to efficiently predict the dynamics of complex structures with cracks. The generalized HSNC approach is based on the idea that the nonlinear response of a cracked structure with multiple contact pairs can be obtained by combining linear responses of the system in each of its linear states. These linear responses can be symbolically expressed as functions of the initial conditions at starting time points in each time range where the system behaves linearly. The transition time where the system switches from one linear state to another is found using a nonlinear optimization solver with the initial values provided by an incremental search process. The method is able to individually track status of each contact pair; therefore, it can be used to predict the dynamics of the system when the crack surfaces are not completely open or closed. Moreover, both the transient and steady-state responses of complex cracked structures under various forcing conditions can be captured by the new method. The generalized HSNC method provides a flexible computational framework that is several orders of magnitude faster than traditional numerical integration methods. The dynamics of a spring–mass system and cantilever beam models that contain one crack and multiple cracks are investigated using the proposed method.
Author	D’Souza, Kiran Tien, Meng-Hsuan
Author_xml	– sequence: 1 givenname: Meng-Hsuan orcidid: 0000-0002-1844-0093 surname: Tien fullname: Tien, Meng-Hsuan organization: Department of Mechanical and Aerospace Engineering, The Ohio State University – sequence: 2 givenname: Kiran orcidid: 0000-0002-1144-2432 surname: D’Souza fullname: D’Souza, Kiran email: dsouza.60@osu.edu organization: Department of Mechanical and Aerospace Engineering, The Ohio State University
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References_xml	– reference: Doebling, S.W., Farrar, C.R., Prime, M.B., Shevitz, D.W.: Damage identification and health monitoring of structural and mechanical systems from changes in their vibration characteristics: a literature review. In: Los Alamos National Laboratory Report LA-13070-MS. Los Alamos, NM (1996) – reference: HeinHFeklistovaLComputationally efficient delamination detection in composite beams using Haar waveletsMech. Syst. Signal Process.20112562257227010.1016/j.ymssp.2011.02.003 – reference: ShiiryayevOVSlaterJCDetection of fatigue cracks using random decrement signaturesStruct. Health Monit.20109434736010.1177/1475921710361324 – reference: D’SouzaKEpureanuBIMultiple augmentations of nonlinear systems and generalized minimum rank perturbations for damage detectionJ. Sound Vib.20083161–510112110.1016/j.jsv.2008.02.018 – reference: HestenesMRMultiplier and gradient methodsJ. Optim. 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SubjectTerms	Aerospace engineering Algorithms Automotive Engineering Cantilever beams Classical Mechanics Computational efficiency Control Cracks Dynamical Systems Engineering Initial conditions Mass-spring systems Mathematical models Mechanical Engineering Nonlinear response Nonlinear systems Nonlinearity Numerical integration Numerical methods Optimization Original Paper Reduced order models Search process Steady state Switches Vibration
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Title	Transient dynamic analysis of cracked structures with multiple contact pairs using generalized HSNC
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