Yinwen Li

With the rapid growth of cutting-edge fields such as artificial intelligence [1], electronic skin [2], and health monitoring [3], flexible wearable devices have emerged as a focal point of research and consumer interest [4]. These devices possess significant potential for enhancing human–machine interaction [5] and advancing wearable technology [6]. However, their widespread dissemination faces several challenges, including electromagnetic interference and ionizing radiation exposure.

Promotion effect of Ag on syngas transformation to long-chain alcohols over CuFe catalysts† The catalyst CuFeAg0.5 derived from a layered double hydroxide precursor exhibited the highest STY toward long-chain alcohols of 0.139 g gcat−1 h−1. The introduction of Ag enhanced the interaction between Cu and Fe5C2 species. When C2H4 was added to the reaction gas, the effect of Ag strengthened the adsorption and transformation of olefin intermediates.

Promotion Effect of Ag on Syngas Transformation to Long-chain Alcohols over CuFe Catalysts The catalyst CuFeAg0.5 derived from layered double hydroxide precursor exhibited highest STY toward long-chain alcohols of 0.139 g gcat-1 h-1. The introduction of Ag enhanced the interaction between Cu and Fe5C2 species. When C2H4 was added to the reaction gas, the effect of Ag strengthened the adsorption and transformation of olefins intermediates.