Zdravko Kutnjak1,Zouhair Hanani1,Brigita Rozic1,Daoud Mezzane2,Mimoun El Marssi3,Anna Morozovska4,Serhii Ivanchenko4,Hana Uršič1,Matjaz Spreitzer1
Jozef Stefan Institute1,University Cadi Ayyad2,University of Picardie Jules Verne3,National Academy of Sciences of Ukraine4
Zdravko Kutnjak1,Zouhair Hanani1,Brigita Rozic1,Daoud Mezzane2,Mimoun El Marssi3,Anna Morozovska4,Serhii Ivanchenko4,Hana Uršič1,Matjaz Spreitzer1
Jozef Stefan Institute1,University Cadi Ayyad2,University of Picardie Jules Verne3,National Academy of Sciences of Ukraine4
Today's quest for sustainable energy solutions through greener energy harvesting and heat-management technologies has recently developed a significant interest in new flexible and biocompatible nanocomposite ceramics with large electromechanical, triboelectric, and electrocaloric (EC) effects [1]. Therefore, an overview of experimental and theoretical investigations of the large EC, piezoelectric, and triboelectric response in flexible ceramic nanocomposites exploiting enhanced multiferroic properties of ferroelectric nanoparticles within the polymer matrix will be presented in this contribution. Specifically, the enhanced EC response in lead-free BCZT and BaTiO3-based nanoparticles will be reviewed, including flexible polymer composites' large energy harvesting potential [2]. The impact of filler's dielectric permittivity and aspect ratio in high-k polymer and the benefits of combining 1D and 3D nanofillers on enhanced properties of flexible nanocomposites will be discussed [3]. [1] Z. Kutnjak., B. Rozic, R. Pirc., Wiley Encyclopedia of Electrical and Electronics Engineering, 1-19 (2015). [2] Z. Hanani et al., Nano Energy 81, 105661 (2021). [3] Z. Hanani et al., Nanoscale Adv. 4, 4658 (2022).