In order to achieve a better trade-off among ionic conductivity, mechanical strength and chemical stability, a series of novel aggregated and ionic cross-linked anion exchange membranes (AEMs) are recommended, namely, acS₆QAPSF, acS₈QAPSF and acS₁₀QAPSF. Cross-linked network shoulders the responsibility to toughen the acS_xQAPSF. Appropriate micro-morphology is responsible for facilitating the conduction of OH⁻ and improving the alkaline stability of the acS_xQAPSF. Compared with the original QAPSF, acS_xQAPSF membranes exhibit much better properties. Specifically, for acS₈QAPSF, a high OH⁻ conductivity of 90.5 mS cm⁻¹ is achieved at 80 °C, with the swelling degree of 10.0%. The tensile strength and elongation at break of wet acS₈QAPSF at 25 °C are 23.9 Mpa and 21.1%, respectively. After testing in 1 M NaOH at 80 °C for 30 days, the weight loss of acS₈QAPSF is 8.0%, with the losses of tensile strength and elongation at break of 13.8% and 13.3%, respectively. Its IEC and IC retentions are 92.0% and 90.5%, respectively. For acS₈QAPSF, a fuel cell peak power density of 0.612 W cm⁻² is obtained at 60 °C. While for QAPSF, its fuel cell peak power density is only 0.101 W cm⁻², and the film is cracked after the 30 days stability test.

为了在离子电导率，机械强度和化学稳定性之间取得更好的平衡，建议使用一系列新型的聚集和离子交联阴离子交换膜（acs ₆ QAPSF，ac S ₈ QAPSF和ac S ₆ QAPSF）。ac S ₁₀ QAPSF。交联网络肩负着加强ac S _x QAPSF的责任。适当的微形态是负责促进OH的导通^-和改善的碱稳定性交流小号_X QAPSF。与原始QAPSF相比，ac S _xQAPSF膜表现出更好的性能。具体而言，交流š ₈ QAPSF，高OH ^- 90.5毫秒cm的电导率^-1在80℃下实现的，与10.0％的溶胀度。湿ac S ₈ QAPSF在25°C下的抗张强度和断裂伸长率分别为23.9 Mpa和21.1％。在80°C的1 M NaOH中测试30天后，ac S ₈ QAPSF的重量损失为8.0％，拉伸强度和断裂伸长率的损失分别为13.8％和13.3％。其IEC和IC保留率分别为92.0％和90.5％。对于ac S ₈ QAPSF，燃料电池的峰值功率密度为0.612 W cm在60℃下获得^-2。对于QAPSF，其燃料电池的峰值功率密度仅为0.101 W cm ^-2，并且在30天的稳定性测试后膜破裂。