<trans-title xml:lang="en">Research Progress on Ferroelectric Superlattices</trans-title>

[7] D A TENNE, A BRUCHHAUSEN, N D LANZILLOTTI-KIMURA et al. Probing nanoscale ferroelectricity by ultraviolet Raman spectroscopy. Science, 313, 1614(2006).

[8] S S A SEO, J H LEE, H N LEE et al. Ferroelectricity in artificial bicolor oxide superlattices. Advanced Materials, 19, 2460(2007).

[9] B HE, Z WANG. Enhancement of the electrical properties in BaTiO₃/PbZr_0.52Ti_0.48O₃ ferroelectric superlattices. ACS Applied Materials & Interfaces, 8, 6736(2016).

[10] H N LEE, H M CHRISTEN, M F CHISHOLM et al. Strong polarization enhancement in asymmetric three-component ferroelectric superlattices. Nature, 433, 395(2005).

[11] L HONG, P WU, Y LI et al. Piezoelectric enhancement of (PbTiO₃)_m/(BaTiO₃)_n ferroelectric superlattices through domain engineering. Physical Review B, 90, 174111(2014).

[12] Z WANG, H CAO, Q LIU et al. The enhanced ferroelectricity in Sr_1-_δTiO₃/BaTiO₃superlattices with Sr deficiency. Journal of Physics D: Applied Physics, 53, 314004(2020).

[13] E BOUSQUET, M DAWBER, N STUCKI et al. Improper ferroelectricity in perovskite oxide artificial superlattices. Nature, 452, 732(2008).

[14] B XU, D WANG, H J ZHAO et al. Hybrid improper ferroelectricity in multiferroic superlattices: finite-temperature properties and electric-field-driven switching of polarization and magnetization. Advanced Functional Materials, 25, 3626(2015).

[15] J RAVICHANDRAN, A K YADAV, R CHEAITO et al. Crossover from incoherent to coherent phonon scattering in epitaxial oxide superlattices. Nature Materials, 13, 168(2014).

[16] Y CAO, Z WANG, S Y PARK et al. Artificial two-dimensional polar metal at room temperature. Nature Communications, 9, 1547(2018).

[17] M YE, S HU, Y ZHU et al. Electric polarization switching on an atomically thin metallic oxide. Nano Letters, 21, 144(2021).

[18] M K NIRANJAN, Y WANG, S S JASWAL et al. Prediction of a switchable two-dimensional electron gas at ferroelectric oxide interfaces. Physical Review Letters, 103, 016804(2009).

[19] M VERISSIMO-ALVES, P GARCIA-FERNANDEZ, D I BILC et al. Highly confined spin-polarized two-dimensional electron gas in SrTiO₃/SrRuO₃ superlattices. Physical Review Letters, 108, 107003(2012).

[20] H OHTA, S KIM, Y MUNE et al. Giant thermoelectric Seebeck coefficient of a two-dimensional electron gas in SrTiO₃. Nature Materials, 6, 129(2007).

[21] P X ZHOU, H M LIU, Z B YAN et al. Magnetic properties and electronic structures of (YTiO₃)₂/(BaTiO₃)_n superlattices. Journal of Applied Physics, 115, 17(2014).

[22] P ZUBKO, J C WOJDEŁ, M HADJIMICHAEL et al. Negative capacitance in multidomain ferroelectric superlattices. Nature, 534, 524(2016).

[23] W GAO, A KHAN, X MARTI et al. Room-temperature negative capacitance in a ferroelectric-dielectric superlattice heterostructure. Nano Letters, 14, 5814(2014).

[24] M GRAF, H ARAMBERRI, P ZUBKO et al. Giant voltage amplification from electrostatically induced incipient ferroelectric states. Nature Materials, 21, 1252(2022).

[25] A K YADAV, C T NELSON, S L HSU et al. Observation of polar vortices in oxide superlattices. Nature, 530, 198(2016).

[26] Z HONG, L Q CHEN. Switchable polar spirals in tricolor oxide superlattices. Acta Materialia, 164, 493(2019).

[27] S DAS, Y L TANG, Z HONG et al. Observation of room- temperature polar skyrmions. Nature, 568, 368(2019).

[28] Y L TANG, Y L ZHU, X L MA. Topological polar structures in ferroelectric oxide films. Journal of Applied Physics, 129, 200904(2021).

[29] Z HONG, A R DAMODARAN, F XUE et al. Stability of polar vortex lattice in ferroelectric superlattices. Nano Letters, 17, 2246(2017).

[30] H W JANG, A KUMAR, S DENEV et al. Ferroelectricity in strain-free SrTiO₃ thin films. Physical Review Letters, 104, 197601(2010).

[31] B LUO, X WANG, E TIAN et al. Electronic structure, optical and dielectric properties of BaTiO₃/CaTiO₃/SrTiO₃ ferroelectric superlattices from first-principles calculations. Journal of Materials Chemistry C, 3, 8625(2015).

[32] H TABATA, H TANAKA, T KAWAI. Formation of artificial BaTiO₃/SrTiO₃ superlattices using pulsed laser deposition and their dielectric properties. Applied Physics Letters, 65, 1970(1994).

[33] S DAS, Z HONG, M MCCARTER et al. A new era in ferroelectrics. APL Materials, 8, 120902(2020).

[34] S DAS, A GHOSH, M R MCCARTER et al. Perspective: emergent topologies in oxide superlattices. APL Materials, 6, 100901(2018).

[35] M BENYOUSSEF, J BELHADI, A LAHMAR et al. Tailoring the dielectric and energy storage properties in BaTiO₃/BaZrO₃ superlattices. Materials Letters, 234, 279(2019).

[36] Z SUN, C MA, M LIU et al. Ultrahigh energy storage performance of lead-free oxide multilayer film capacitors via interface engineering. Advanced Materials, 29, 1604427(2017).

[37] H ARAMBERRI, N S FEDOROVA, J INIGUEZ. Ferroelectric/ paraelectric superlattices for energy storage. Science Advances, 8, eabn4880(2022).

[38] Y YUN, L MUHLENBEIN, D S KNOCHE et al. Strongly enhanced and tunable photovoltaic effect in ferroelectric- paraelectric superlattices. Science Advances, 7, eabe4206(2021).

[39] Y JI, W J CHEN, Y ZHENG. The emergence of tunable negative electrocaloric effect in ferroelectric/paraelectric superlattices. Journal of Physics D: Applied Physics, 53, 505302(2020).

[40] J L LIN, Z J WANG, X ZHAO et al. Microstructures and ferroelectric properties of PbTiO₃/PbZrO₃ superlattices deposited by pulse laser deposition. Ceramics International, 44, 20664(2018).

[41] T CHOI, J LEE. Structural and dielectric properties of artificial PbZrO₃/PbTiO₃ superlattices grown by pulsed laser deposition. Thin Solid Films, 475, 283(2005).

[42] Y BASTANI, N BASSIRI-GHARB. Enhanced dielectric and piezoelectric response in PZT superlattice-like films by leveraging spontaneous Zr/Ti gradient formation. Acta Materialia, 60, 1346(2012).

[43] I VREJOIU, Y ZHU, RHUN G LE et al. Structure and properties of epitaxial ferroelectric PbZr_0.4Ti_0.6O₃/PbZr_0.6Ti_0.4O₃ superlattices grown on SrTiO₃ (001) by pulsed laser deposition. Applied Physics Letters, 90, 072909(2007).

[44] E LUPI, A GHOSH, S SAREMI et al. Large polarization and susceptibilities in artificial morphotropic phase boundary PbZr_1-_xTi_xO₃ superlattices. Advanced Electronic Materials, 6, 1901395(2020).

[45] Y LU. Dielectric and ferroelectric behaviors in Pb(Mg_1/3Nb_2/3)O₃- PbTiO₃ rhombohedral/tetragonal superlattices. Applied Physics Letters, 85, 979(2004).

[46] Q LIN, D WANG, Z CHEN et al. Periodicity dependence of the built-in electric field in (Ba_0.7Ca_0.3)TiO₃/Ba(Zr_0.2Ti_0.8)O₃ ferroelectric superlattices. ACS Applied Materials & Interfaces, 7, 26301(2015).

[47] I KANNO, S HAYASHI, R TAKAYAMA et al. Superlattices of PbZrO₃ and PbTiO₃ prepared by multi-ion-beam sputtering. Applied Physics Letters, 68, 328(1996).

[48] Y C LIANG, Y C LIANG. Effects of substrate temperature on the physical properties of strained BaTiO₃/LaNiO₃ artificial superlattices. Journal of Crystal Growth, 285, 345(2005).

[49] J Y TSENG, T B WU. Dielectric enhancement in (001)-textured BaTiO₃/LaNiO₃superlattice. Materials Chemistry and Physics, 88, 433(2004).

[50] J XIA, W SIEMONS, G KOSTER et al. Critical thickness for itinerant ferromagnetism in ultrathin films of SrRuO₃. Physical Review B, 79, 140407(2009).

[51] R SCHERWITZL, S GARIGLIO, M GABAY et al. Metal- insulator transition in ultrathin LaNiO₃ films. Physical Review Letters, 106, 246403(2011).

[52] Z LIAO, F LI, P GAO et al. Origin of the metal-insulator transition in ultrathin films of La_2/3Sr_1/3MnO₃. Physical Review B, 92, 125123(2015).

[53] S J CALLORI, J GABEL, D SU et al. Ferroelectric PbTiO₃/ SrRuO₃ superlattices with broken inversion symmetry. Physical Review Letters, 109, 067601(2012).

[54] S E ROWLEY, L J SPALEK, R P SMITH et al. Ferroelectric quantum criticality. Nature Physics, 10, 367(2014).

[55] L H YIN, T F SHI, R R ZHANG et al. Electric dipoles via Cr³⁺(d³) ion off-center displacement in perovskite DyCrO₃. Physical Review B, 98, 054301(2018).

[56] R HE, J L LIN, Q LIU et al. Emergent ferroelectricity in otherwise nonferroelectric oxides by oxygen vacancy design at heterointerfaces. ACS Applied Materials & Interfaces, 12, 45602(2020).

[57] T TSURUMI, T HARIGAI, D TANAKA et al. Artificial ferroelectricity in perovskite superlattices. Applied Physics Letters, 85, 5016(2004).

[58] K YANG, C WANG, J LI et al. Structural and polarization properties of short-period SrZrO₃/SrTiO₃superlattices. Physical Review B, 75, 224117(2007).

[59] J L LIN, Y SUN, R HE et al. Colossal room-temperature ferroelectric polarizations in SrTiO₃/SrRuO₃ superlattices induced by oxygen vacancies. Nano Letters, 22, 7104(2022).

[60] S STARSCHICH, S MENZEL, U BÖTTGER. Evidence for oxygen vacancies movement during wake-up in ferroelectric hafnium oxide. Applied Physics Letters, 108, 032903(2016).

[61] J L LIN, Z J WANG, X ZHAO et al. Significantly enhanced ferroelectric and dielectric properties in BaTiO₃/LaNiO₃ superlattices. Scripta Materialia, 179, 102(2020).

[62] J L LIN, Z J WANG, X ZHAO et al. Effect of SrRuO₃ layer thickness on electrical properties of Pb(Zr_0.52Ti_0.48)O₃/SrRuO₃ superlattices. Ceramics International, 46, 9328(2020).

[63] D O’NEILL, R M BOWMAN, J M GREGG. Dielectric enhancement and Maxwell-Wagner effects in ferroelectric superlattice structures. Applied Physics Letters, 77, 1520(2000).

[64] B M DARINSKII, A S SIDORKIN, A S SIGOV. Influence of misfit stresses on the dielectric permeability of ferroelectric superlattices BaTiO₃/BaZrO₃. Nanocomposites, 7, 154(2021).

[65] M J CHEN, X K NING, S F WANG et al. Enhanced polarization and dielectricity in BaTiO₃:NiO nanocomposite films modulated by the microstructure. RSC Advances, 7, 38231(2017).

[66] M B OKATAN, I B MISIRLIOGLU, S P ALPAY. Contribution of space charges to the polarization of ferroelectric superlattices and its effect on dielectric properties. Physical Review B, 82, 094115(2010).

[67] M HADJIMICHAEL, Y LI, L YEDRA et al. Domain structure and dielectric properties of metal-ferroelectric superlattices with asymmetric interfaces. Physical Review Materials, 4, 094415(2020).

[68] P K PETROV, B ZOU, Y WANG et al. STO/BTO modulated superlattice multilayer structures with atomically sharp interfaces. Advanced Materials Interfaces, 1, 1300116(2014).

[69] I KANNO. Piezoelectric MEMS: ferroelectric thin films for MEMS applications. Japanese Journal of Applied Physics, 57, 040101(2018).

[70] J SINSHEIMER, S J CALLORI, B BEIN et al. Engineering polarization rotation in a ferroelectric superlattice. Physical Review Letters, 109, 167601(2012).

[71] V R COOPER, K M RABE. Enhancing piezoelectricity through polarization-strain coupling in ferroelectric superlattices. Physical Review B, 79, 180101(2009).

[72] N D SHARMA, C M LANDIS, P SHARMA. Piezoelectric thin- film superlattices without using piezoelectric materials. Journal of Applied Physics, 108, 024304(2010).

[73] C JIN, W GENG, L WANG et al. Tuning ferroelectricity and ferromagnetism in BiFeO₃/BiMnO₃ superlattices. Nanoscale, 12, 9810(2020).

[74] M GUO, G TAN, W YANG et al. Resistive switching and ferroelectric properties in BiFeO₃ superlattice films. Materials Letters, 228, 13.

[75] Z CUI, A J GRUTTER, H ZHOU et al. Correlation-driven eightfold magnetic anisotropy in a two-dimensional oxide monolayer. Science Advances, 6, eaay0114(2020).

[76] S G JEONG, G HAN, S SONG et al. Propagation control of octahedral tilt in SrRuO₃via artificial heterostructuring. Advanced Science, 2001643(2020).

[77] M GU, Q XIE, X SHEN et al. Magnetic ordering and structural phase transitions in a strained ultrathin SrRuO₃/SrTiO₃ superlattice. Physical Review Letters, 109, 157003(2012).

[78] P GARCÍA-FERNÁNDEZ, M VERISSIMO-ALVES, D I BILC et al. First-principles modeling of the thermoelectric properties of SrTiO₃/SrRuO₃superlattices. Physical Review B, 86, 085305(2012).

[79] K J CHOI. Enhancement of ferroelectricity in strained BaTiO₃ thin films. Science, 306, 1005(2004).

[80] D G SCHLOM, L Q CHEN, C B EOM et al. Strain tuning of ferroelectric thin films. Annual Review of Materials Research, 37, 589(2007).

[81] M P WARUSAWITHANA, C S KENGLE, X ZHAN et al. Asymmetric ferroelectricity by design in atomic-layer superlattices with broken inversion symmetry. Physical Review B, 104, 085103(2021).

[82] J HWANG, Z FENG, N CHARLES et al. Tuning perovskite oxides by strain: electronic structure, properties, and functions in (electro)catalysis and ferroelectricity. Materials Today, 31, 100(2019).

[83] Z Y ZHU, S Q WANG, Y M FU. First-principles study of properties of strained PbTiO₃/KTaO₃ superlattice. Chinese Physics Letters, 33, 026302(2016).

[84] J M RONDINELLI, C J FENNIE. Octahedral rotation-induced ferroelectricity in cation ordered perovskites. Advanced Materials, 24, 1961(2012).

[85] P AGUADO-PUENTE, P GARCIA-FERNANDEZ, J JUNQUERA. Interplay of couplings between antiferrodistortive, ferroelectric, and strain degrees of freedom in monodomain PbTiO₃/SrTiO₃ superlattices. Physical Review Letters, 107, 217601(2011).

[86] S M NAKHMANSON, K M RABE, D VANDERBILT. Polarization enhancement in two- and three-component ferroelectric superlattices. Applied Physics Letters, 87, 102906(2005).

[87] B CHEN, N GAUQUELIN, N STRKALJ et al. Signatures of enhanced out-of-plane polarization in asymmetric BaTiO₃ superlattices integrated on silicon. Nature Communications, 13, 265(2022).

[88] N ORTEGA, A KUMAR, O RESTO et al. Compositional engineering of BaTiO₃/(Ba,Sr)TiO₃ ferroelectric superlattices. Journal of Applied Physics, 114, 104102(2013).

[89] K BOLDYREVA, L PINTILIE, A LOTNYK et al. Thickness- driven antiferroelectric-to-ferroelectric phase transition of thin PbZrO₃ layers in epitaxial PbZrO₃/Pb(Zr_0.8Ti_0.2)O₃ multilayers. Applied Physics Letters, 91, 122915(2007).

[90] E KHESTANOVA, N DIX, I FINA et al. Untangling electrostatic and strain effects on the polarization of ferroelectric superlattices. Advanced Functional Materials, 26, 6446(2016).

[91] K G LIM, K H CHEW, D Y WANG et al. Charge compensation phenomena for polarization discontinuities in ferroelectric superlattices. Europhysics Letters, 108, 67011(2014).

[92] K H CHEW, K G LIM, L H ONG. Polarization discontinuity and interface charges in ferroelectric superlattices. Ferroelectrics, 490, 149(2016).

[93] X WU, K M RABE, D VANDERBILT. Interfacial enhancement of ferroelectricity in CaTiO₃/BaTiO₃superlattices. Physical Review B, 83, 020104(2011).

[94] S S A SEO, H N LEE. Strain-coupled ferroelectric polarization in BaTiO₃-CaTiO₃ superlattices. Applied Physics Letters, 94, 232904(2009).

[95] P ZUBKO, N JECKLIN, A TORRES-PARDO et al. Electrostatic coupling and local structural distortions at interfaces in ferroelectric/paraelectric superlattices. Nano Letters, 12, 2846(2012).

[96] D S AIDHY, K RAWAT. Coupling between interfacial strain and oxygen vacancies at complex-oxides interfaces. Journal of Applied Physics, 129, 171102(2021).

[97] W LI, R ZHAO, R TANG et al. Vertical-interface-manipulated conduction behavior in nanocomposite oxide thin films. ACS Applied Materials & Interfaces, 6, 5356(2014).

[98] Y LIU, Y L ZHU, Y L TANG et al. Local enhancement of polarization at PbTiO₃/BiFeO₃ interfaces mediated by charge transfer. Nano Letters, 17, 3619(2017).

[99] J L LIN, R HE, Z LU et al. Oxygen vacancy enhanced ferroelectricity in BTO:SRO nanocomposite films. Acta Materialia, 199, 9(2020).

[100] V R COOPER, K JOHNSTON, K M RABE. Polarization enhancement in short period superlattices via interfacial intermixing. Physical Review B, 76, 020103(2007).

[101] N A PERTSEV, M TYUNINA. Interfacial nanolayers and permittivity of ferroelectric superlattices. Journal of Applied Physics, 109, 126101(2011).

[102] C L HUNG, Y L CHUEH, T B WU et al. Characteristics of constrained ferroelectricity in PbZrO₃/BaZrO₃ superlattice films. Journal of Applied Physics, 97, 034105(2005).

[103] Y ISHIBASHI, N OHASHI, T TSURUMI. Structural refinement of X-ray diffraction profile for artificial superlattices. Japanese Journal of Applied Physics, 39, 186(2000).

[104] D KAN, R ASO, R SATO et al. Tuning magnetic anisotropy by interfacially engineering the oxygen coordination environment in a transition metal oxide. Nature Materials, 15, 432(2016).

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Junliang LIN, Zhanjie WANG. Research Progress on Ferroelectric Superlattices[J]. Journal of Inorganic Materials, 2023, 38(6): 606

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