Category Ranking

98%

Total Visits

921

Avg Visit Duration

2 minutes

Citations

20

Article Abstract

This work presents a redox-mediated electrolytic nitrogen reduction reaction (RM-eNRR) using polyoxometalate (POM) as the electron and proton carrier which frees the TiO -based catalyst from the electrode and shifts the reduction of nitrogen to a reactor tank. The RM-eNRR process has achieved an ammonium production yield of 25.1 μg h or 5.0 μg h  cm at an ammonium concentration of 6.7 ppm. With high catalyst loading, 61.0 ppm ammonium was accumulated in the electrolyte upon continuous operation, which is the highest concentration detected for ambient eNRR so far. The mechanism underlying the RM-eNRR was scrutinized both experimentally and computationally to delineate the POM-mediated charge transfer and hydrogenation process of nitrogen molecule on the catalyst. RM-eNRR is expected to provide an implementable solution to overcome the limitations in the conventional eNRR process.

Download full-text PDF

Source
http://dx.doi.org/10.1002/anie.202105536DOI Listing

Publication Analysis

Top Keywords

electrolytic nitrogen
8
nitrogen reduction
8
redox-mediated ambient
4
ambient electrolytic
4
nitrogen
4
reduction hydrazine
4
hydrazine ammonia
4
ammonia generation
4
generation work
4
work presents
4

Similar Publications

Nitrogen (N) fixation with non-thermal plasmas has been proposed as a sustainable alternative to meet growing N fertilizer demands for agriculture. This technology generates Plasma Activated Water (PAW) with a range of chemical compositions, including different concentrations of nitrate (NO₃⁻) and hydrogen peroxide (H2O2), among other compounds. Potential use of PAW as an effective crop fertilizer necessitates a robust understanding of the underlying biology of the plant, which is not yet available.

View Article and Find Full Text PDF

While plants adapt to fluctuating phosphorus (P) availability in soils by enhancing phosphate acquisition or optimizing internal P-utilization, the spatiotemporal dynamics of these responses, particularly in crops, remain poorly understood. This study systematically investigated how and when potato organs respond to fluctuating P availability across different developmental stages using transcriptomic, metabolomic, and physiological analyses of leaves, roots, and tubers. Transcriptomic data revealed dynamic, organ- and stage-specific responses to P-deficiency, with the highest number of differentially expressed genes in leaves before tuberization and in roots during tuberization.

View Article and Find Full Text PDF

The development of flexible gas sensors is of growing interest in wearable electronics. However, developing a gas sensor with low operating temperature, high sensitivity, and rapid response remains a huge challenge. Herein, we first develop a polyacrylamide-sodium acrylate-sodium citrate (PAM-Na-SC) hydrogel electrolyte, and design a hydrogel-based nitrogen dioxide (NO) gas sensor enabled by zinc-air batteries (ZABs).

View Article and Find Full Text PDF

In this study, we synthesized a novel three-dimensional nitrogen-doped reduced graphene oxide (3D-NRGO) by integrating a sulfonated polystyrene (PSS) template method with nitrogen doping. The resulting 3D-NRGO was applied as an electrocatalyst for the oxygen reduction reaction (ORR) in acidic electrolyte. Owing to the synergistic effect arising from its three-dimensional structure and nitrogen doping, the catalyst demonstrates substantially augmented catalytic current density, a more positive ORR potential, excellent methanol tolerance, and prolonged operational stability.

View Article and Find Full Text PDF

Hierarchical biomass-derived carbon framework with asymmetric ZnCo dual-atom pairs for synergistic polysulfide adsorption and catalysis in Lithium-sulfur batteries.

J Colloid Interface Sci

August 2025

Power Battery and System Research Center, State Key Laboratory of Catalysis, Dalian Institute of Chemical Physics, Chinese Academy of Sciences, Dalian 116023, China.. Electronic address:

Lithium‑sulfur (LiS) batteries have recently attracted ever-increasing attention owing to their ultrahigh specific energy and substantial cost benefits of sulfur. However, the sluggish redox kinetics from the critical conversion of soluble long-chain lithium polysulfide to solid-state LiS remains a fundamental challenge. Herein, hierarchical porous nitrogen-doped carbon frameworks with asymmetric ZnCo dual-atom pairs (Zn-Co/NC) were successfully constructed using biomass-derived porous carbon as structural matrix through in situ growth and assisted pyrolysis strategy.

View Article and Find Full Text PDF