and LRD characteristics of the equipment
degradation process. This paper describes a new RUL prediction
. The
degradation process of a CGC from a normal state to a failure state has long-range dependence (LRD
The
degradation process of lithium-ion batteries has memory, i.e. it has long-range dependence (LRD
Jiang, HP,
Zhang, DZ,
Aleksandrovich, KD,
Ye, JY,
Wang, LX,
Chen, XF,
Gao, M,
Wang, XZ,
Yan, T,
Yang, H,
Lu, EZ,
Liu, WW,
Zhang, C,
Wu, JN,
Yao, PL,
Sun, ZY,
Rong, X,
Timofeevich, SA,
Mahmutovich, SS,
Zheng, ZX,
Chen, X,
Zhao, SG (2022) . Additionally, pectolinarigenin promoted RRM2 protein
degradation via autolysosome-dependent pathway
Bryzgalov, Vladimir,
Kistanov, Andrey A.,
Khafizova, Elvira a,
Polenok, Milena,
Izosimov, Artem,
Korznikova, Elena A. (2024) decrease and corrosion rate enhancement. To understand key factors of the surface
degradation behavior
Yuan, Yuchen,
Chen, Jianxue,
Rong, Jin,
Cattani, Piercarlo,
Kudreyko, Aleksey,
Villecco, Francesco (2023) Tool
Degradation Prediction Based on Semimartingale Approximation of Linear Fractional Alpha
for Lithium-ion batteries remaining useful life (RUL) prediction. Firstly, the FBM
degradation model
Qi, Deyu,
Zhu, Zijiang,
Yao, Fengmin,
Song, Wanqing,
Kudreyko, Aleksey,
Cattani, Piercarlo,
Villecco, Francesco (2024) -range dependence (LRD) and heavy-tailed characteristics of
degradation modeling make this method advantageous
Song, Wanqing,
Chen, Jianxue,
Wang, Zhen,
Kudreyko, Aleksey,
Qi, Deyu,
Zio, Enrico (2023) –Stieltjes transform and Monte Carlo simulation. The proposed
degradation model exhibits flexibility for capturing long
Deng, W.,
Gao, Y.,
Chen, J.,
Kudreyko, A.,
Cattani, C.,
Zio, E.,
Song, W. (2023) lithium batteries. Capacity
degradation of the electric car lithium batteries is modeled by the
multi