Design of oxygen and hydrogen separation membranes is the point of current interest in producing syngas from biofuels. Nanocomposites with a high mixed ionic-electronic conductivity are known to be promising materials for these applications. This work aims at studying performance of oxygen and hydrogen separation membranes based on nanocomposites PrNi_0.5Co_0.5O_3-δ + Ce_0.9Y_0.1O_2-δ and Nd_5.5WO_11.25-δ + NiCu alloy, respectively. A high and stable performance promising for the practical application was demonstrated for these membranes. For oxygen separation membrane CH₄ conversion is up to 50% with H₂ content in the outlet feed being up to 25% at 900 °C. For reactor with hydrogen separation membrane complete EtOH conversion was achieved at T ∼ 700 °C even at the highest flow rate, and a high hydrogen permeation (≥1 ml H₂ cm⁻² min⁻¹) was revealed.

氧气和氢气分离膜的设计是当前从生物燃料生产合成气的关注点。已知具有高混合离子-电子导电性的纳米复合材料是用于这些应用的有前途的材料。基于纳米复合材料PrNi这项工作的目的在于氧和氢分离膜的性能研究_0.5钴_0.5 ø _3-δ  +的Ce _0.9 ý _0.1 ø _2-δ和Nd _5.5 WO _11.25-δ 分别+镍铜合金。这些膜表现出了高的和稳定的性能，可用于实际应用。对于氧气分离膜，CH _4的转化率最高可达50％出口进料中_2的含量在900°C时高达25％。对于氢分离膜完整EtOH中转化反应器在实现Ť  〜700℃即使在最高的流动速率，以及高氢（≥1毫升水渗透₂ 厘米^-2 分钟^-1）显露。