Nuclear power will continue to provide energy for the foreseeable future, but it can pose
significant challenges in terms of the disposal of waste and potential release of untreated …

As an extraordinarily lightweight and porous functional nanomaterial family, aerogels have
attracted considerable interest in academia and industry in recent decades. Despite the …

Radioactive molecular iodine (I2) and organic iodides, mainly methyl iodide (CH3I), coexist
in the off-gas stream of nuclear power plants at low concentrations, whereas few adsorbents …

Abstract Adsorption‐based iodine (I2) capture has great potential for the treatment of
radioactive nuclear waste. In this study, we apply a “multivariate” synthetic strategy to …

The ability to capture radioactive iodine species is crucial for nuclear accident preparedness
and nuclear waste treatment; however, it remains a challenge. Here we report a new readily …

The enrichment of radioactive iodine in the waste of nuclear industries threatens human
health, and thus the efficient capture of iodine has attracted a great deal of attention in recent …

Developing efficient adsorbents to capture radioactive iodine produced from nuclear wastes
is highly desired. Here we report the facial synthesis of a hexacationic imidazolium organic …

The number of studies on the capture of radioactive iodine compounds by porous sorbents
has regained major importance in the last few years. In fact, nuclear energy is facing major …

The immobilization of radioiodine produced from reprocessing used nuclear fuel is a
growing priority for research and development of nuclear waste forms. This review provides …

The effective capture of radioactive iodine vapor is crucial for radiation safety during spent
fuel reprocessing. However, current materials used for iodine vapor capture have limitations …