Research community previously filed under “Inorganic Chemistry”

Uranium Extraction from Aqueous Sources and Nuclear Waste Treatment

Papers 66,695
Elements —
Keywords & sectors —
Leading venue Journal of Radioanalytical and Nuclear Chemistry

Uranium Extraction from Aqueous Sources and Nuclear Waste Treatment

This research community develops chemical methods and materials to capture, separate, and remove uranium and other actinides from water, nuclear fuel cycles, and radioactive waste streams.

The work centers on designing adsorbents and separation agents for uranium recovery from seawater, wastewater, and acidic nuclear solutions. Recurring materials include covalent organic frameworks, metal-organic frameworks, graphene oxide, and functionalized polymers. Key methods involve selective adsorption, electrochemical extraction, and photocatalytic reduction of uranyl ions. The community also addresses the treatment of spent nuclear fuel and radioactive waste, with specific focus on removing uranium from nitric acid solutions and environmental remediation following incidents like Fukushima.

The community represents 26.5% of all uranium research and 21.8% of plutonium research, with 23,589 and 7,886 papers respectively. It also contributes 10.2% of thorium research.

There are 66,695 papers in this community, primarily published in the Journal of Radioanalytical and Nuclear Chemistry, Journal of Environmental Radioactivity, and Health Physics.

Recent work focuses on advanced material designs for seawater uranium extraction, including hierarchical architectures and electrocatalysts for fluoride-containing wastewater, as well as the application of metal-organic and covalent organic frameworks for radionuclide treatment.

Recurring themes in the literature

Phrases that recur across this community's paper titles -- a quick map of its sub-topics, drawn straight from the titles themselves.

  • uranium extraction 641
  • aqueous solution 392
  • nuclear fuel 340
  • extraction seawater 296
  • efficient uranium 273
  • nuclear power 268
  • aqueous solutions 260
  • highly efficient 257
  • uranium adsorption 246
  • removal uranium 245
  • covalent organic 229
  • organic framework 226
  • mass spectrometry 203
  • organic frameworks 201
  • power plant 194
  • extraction uranium 193
  • radioactive waste 190
  • uranium removal 188
  • spent nuclear 183
  • uranium aqueous 176
  • efficient removal 167
  • adsorption uranium 165
  • metal organic 162
  • uranyl ions 161

Papers behind this description

Most cited
Nature Communications · 2023 · 473 citations
Journal of Hazardous Materials · 2025 · 142 citations
Chemical Society Reviews · 2022 · 446 citations
Advanced Functional Materials · 2024 · 221 citations
Angewandte Chemie International Edition · 2023 · 312 citations
Newest
Science China Chemistry · 2025 · 50 citations
Science Bulletin · 2025 · 35 citations
CCS Chemistry · 2025 · 26 citations
Advanced Materials · 2025 · 24 citations
Nature Communications · 2025 · 22 citations

A sample from the 18 papers behind this description. Create a free account to see them all.