Modeling dynamics of a planetary variator applied in the adaptive TMDVI

Lazarek, Mateusz; Brzeski, P.; Perlikowski, Przemysław

doi:10.1016/j.ijmecsci.2022.107487

Cited by 4 publications

(2 citation statements)

References 43 publications

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“…Sadeghian et al (2021) integrated a more compact Continuously Variable Planetary (CVP) transmission device between the ball-screw and flywheel to realise a semiactive ball-screw inerter. Similarly, other researchers have integrated the CVT into their configuration of the flywheel-based IVII (Matsuoka, 2017;Ebrahimnejad and Samani, 2020;Lazarek et al, 2022;Punyakaew, 2022). Apart from CVTs, the parameter β of a flywheel-based inerter can be controlled by other means of variable transmission.…”

Section: Ivii-type Semi-active Inerters Featuring Controllable β Para...mentioning

confidence: 99%

“…Additionally, Brzeski's group addressed parameter identification (Lazarek et al, 2018) and documented the design and modelling of the belt-drive CVT system for their adaptive TMD (Lazarek et al, 2019). Lazarek et al (2022), the group also investigated the feasibility of using an off-the-shelf CVT called the "Planetary Variator" for commercial semi-active inerter-based TMD applications.…”

Section: Dynamic Vibration Absorbers (Dvas)mentioning

confidence: 99%

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Semi-active inerters: a review of the literature

Tran,

Jin,

Deng

et al. 2024

Front. Mater.

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The inerter was introduced as a mechanical counterpart to the electrical capacitor, completing the force-current analogy. This is a one-port, two-terminal device in which the equal and opposite forces exerted at its terminals are proportional to the relative acceleration between them. Within this relationship, the “inertance” is the coefficient of proportionality and carries the unit of mass. This implies that the inerter can exert an inertial force at its terminals, effectively representing a virtual mass. Due to these properties, inerters have gained popularity, finding applications as components of vibration control systems and energy harvesters. Derived from passive inerters, semi-active inerters are integrated with active control systems to regulate their inertance. Since their introduction, semi-active inerters have been pivotal in situations demanding active monitoring of natural frequency or control force, generally outperforming their passive counterparts. While numerous significant reviews on passive inerters and their applications have been published in respected journals, dedicated literature reviews on semi-active inerters remain scarce. This review seeks to bridge this gap, offering a comprehensive literature review on semi-active inerters and highlighting research challenges and opportunities. Given the novelty of semi-active inerters, they present a fascinating area of study.

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