[1] H J YANG, W C BAO, Z L LU et al. High-energy storage performance in BaTiO₃-based lead-free multilayer ceramic capacitors. Journal of Materials Research, 1285-1294(2021).

[2] P Y ZHAO, Z M CAI, L W WU et al. Perspectives and challenges for lead-free energy-storage multilayer ceramic capacitors. Journal of Advanced Ceramics, 1153-1193(2021).

[3] T IM, J PYO, J LEE et al. Fabrication of homogeneous nanosized nickel powders using a planetary ball mill: applications to multilayer ceramic capacitors (MLCCs). Powder Technology, 118-125(2021).

[4] M J WANG, H YANG, Q L ZHANG et al. Low temperature sintering properties of LiF-doped BaTiO₃-based dielectric ceramics for AC MLCCs. Journal of Materials Science: Materials in Electronics, 162-167(2015).

[5] D W WANG, D ZHOU, K X SONG et al. Cold-sintered C0G multilayer ceramic capacitors. ACS Sustainable Chemistry, 1900025(2019).

[6] D W WANG, B SIAME, S Y ZHANG et al. Direct integration of cold sintered, temperature-stable Bi₂Mo₂O₉-K₂MoO₄ ceramics on printed circuit boards for satellite navigation antennas. Journal of the European Ceramic Society, 4029-4034(2020).

[7] D W WANG, D ZHOU, S Y ZHANG et al. Cold-sintered temperature stable Na_0.5Bi_0.5MoO₄-Li₂MoO₄ microwave composite ceramics. ACS Sustainable Chemistry, 2438-2444(2018).

[8] J Y HAO, J GUO, E ZHAO et al. Grain size effect on microwave dielectric properties of Na₂WO₄ ceramics prepared by cold sintering process. Ceramics International, 27193-27198(2020).

[9] C YANG, J P LI, H F SHI et al. Effects of the liquid phase content on the microstructure and properties of the ZrW₂O₈ ceramics with negative thermal expansion fabricated by the cold sintering process. Journal of the European Ceramic Society, 6079-6086(2020).

[10] X P JIANG, G S ZHU, H R XU et al. Preparation of high density ZnO ceramics by the Cold Sintering Process. Ceramics International, 17382-17386(2019).

[11] E ZHAO, J Y HAO, X XUE et al. Rutile TiO₂ microwave dielectric ceramics prepared via cold sintering assisted two step sintering. Journal of the European Ceramic Society, 3459-3465(2021).

[12] H Z GUO, A BAKER, J GUO et al. Protocol for ultralow- temperature ceramic sintering: an integration of nanotechnology and the cold sintering process. ACS Nano, 10606-10614(2016).

[13] H Z GUO, A BAKER, J GUO et al. Cold sintering process: a novel technique for low-temperature ceramic processing of ferroelectrics. Journal of the American Ceramic Society, 3489-3507(2016).

[14] K TSUJI, A NDAYISHIMIYE, S LOWUM et al. Single step densification of high permittivity BaTiO₃ ceramics at 300 ℃. Journal of the European Ceramic Society, 1280-1284(2020).

[15] T SADA, A NDAYISHIMIYE, Z M FAN et al. Surface modification of BaTiO₃ with catechol surfactant and effects on cold sintering. Journal of Applied Physics, 184102(2021).

[16] T SADA, K TSUJI, A NDAYISHIMIYE et al. High permittivity BaTiO₃ and BaTiO₃-polymer nanocomposites enabled by cold sintering with a new transient chemistry: Ba(OH)₂∙8H₂O. Journal of the European Ceramic Society, 409-417(2021).

[17] T SADA, Z M FAN, A NDAYISHIMIYE et al. In situ doping of BaTiO₃ and visualization of pressure solution in flux-assisted cold sintering. Journal of the American Ceramic Society, 96-104(2021).

[18] D X WANG, H Z GUO, C S MORANDI et al. Cold sintering and electrical characterization of lead zirconate titanate piezoelectric ceramics. APL Materials, 016101(2018).

[19] R BOSTON, J GUO, S FUNAHASHI et al. Reactive intermediate phase cold sintering in strontium titanate. RSC Advances, 20372-20378(2018).

[20] T M USHER, B KAVEY, G CARUNTU et al. Effect of BaCO₃ impurities on the structure of BaTiO₃ nanocrystals: implications for multilayer ceramic capacitors. ACS Applied Nano Materials, 9715-9723(2020).

[21] G M REDA, H Q FAN, H L TIAN. Room-temperature solid state synthesis of Co₃O₄/ZnO p-n heterostructure and its photocatalytic activity. Advanced Powder Technology, 953-963(2017).

[22] K SIEMEK, A OLEJNICZAK, L N KOROTKOV et al. Investigation of surface defects in BaTiO₃ nanopowders studied by XPS and positron annihilation lifetime spectroscopy. Applied Surface Science, 151807(2022).

[23] C C HUNG, R E RIMAN. An XPS investigation of hydrothermal and commercial barium titanate powders. KONA Powder Particle Journal, 99-104(1990).

[24] G C LIU, H Q FAN, J XU et al. Colossal permittivity and impedance analysis of niobium and aluminum co-doped TiO₂ ceramics. RSC Advances, 48708-48714(2016).

[25] R KOTA, B LEE. Effect of lattice hydroxyl on the phase transition and dielectric properties of barium titanate particles. Journal of Materials Science: Materials in Electronics, 1221-1227(2007).

[26] Q ZHENG, H Q FAN, C B LONG. Microstructures and electrical responses of pure and chromium-doped CaCu₃Ti₄O₁₂ ceramics. Journal of Alloys and Compounds, 90-94(2012).

[27] A BEAUGER, J C MUTIN, J C NIEPCE. Role and behaviour of orthotitanate Ba₂TiO₄ during the processing of BaTiO₃ based ferroelectric ceramics. Journal of Materials Science, 195-201(1984).

[28] J K LEE, K S HONG, J W JANG. Roles of Ba/Ti ratios in the dielectric properties of BaTiO₃ ceramics. Journal of the American Ceramic Society, 2001-2006(2001).

[29] P PINCELOUP, C COURTOIS, A LERICHE et al. Hydrothermal synthesis of nanometer-sized barium titanate powders: control of barium/titanium ratio, sintering, and dielectric properties. Journal of the American Ceramic Society, 3049-3056(1999).

[30] J P MARIA, X Y KANG, R FLOYD et al. Cold sintering: current status and prospects. Journal of Materials Research, 3205-3218(2017).