Porous g-C₃N₄modified with phenanthroline diamide for efficient and ultrafast adsorption of palladium from simulated high level liquid waste

Abstract

The novel g-C3N4–DAPhen adsorbent was synthesized for the selective adsorption of palladium from high level liquid waste.

Enhanced Versatility in Thorium Removal: Mesoporous Silica-Coated Magnetic Nanoparticles Functionalized by Phenanthroline Diamide as a Selective Adsorbent

“…In this field, common separation methods include solvent extraction and adsorption. Under severe radioactive circumstances, solvent extraction is straightforward to execute, continuous, and automated, but its use is limited by the sluggish mass-transfer rate. − Adsorption is seen as a viable method for removing trace actinides from radioactive waste liquids because it has a low energy need, is simple to use, and produces little secondary waste. − Numerous adsorbents have been tested for removing heavy metals (including Th­(IV)), such as activated carbon, mesoporous silica, and naturally occurring lignocellulosic substrates that are inexpensive. Although these materials are widely accepted and established processes with good yield, their use has several drawbacks.…”

An Aryl‐ether‐linked Covalent Organic Framework Modified with Thioamide Groups for Selective Extraction of Palladium from Strong Acid Solutions

“…[7] Therefore, the development of solid-state adsorbents with high stability and exceptional selectivity is extremely critical for solidstate adsorbents. Up to now, numerous adsorption materials have thus been investigated for the purpose, such as metalorganic frameworks, [8,9] silica materials, [10][11][12] polymeric resins, [13][14][15][16] porous organic polymers, [17,18] modified porous g-C 3 N 4 , [19] and functionalized magnetic nano stirring rods. [20] In spite of that, the modest performance of most current adsorbents under the aforementioned harsh conditions underscores the vital importance of developing more efficient adsorbents.…”