Table 6.

Nanopesticides prepared using host–guest supramolecular chemistry based on a Mg/Al-LDH host using various guests, AIs, for various targets and advantages.

AI Guests	Target/Advantages	Source(s)
Atrazine	The herbicide would be delivered close to its site of uptake, enhancing efficiency and reducing the required dose	[96]
4-Chloro-2-Methylphenoxy Acetic Acid	Slow release of the herbicide reduces the hazardous effects that it can pose to the environment.	[93]
2,4-Dichlorophenoxyacetic Acid	A stronger and irreversible herbicidal effect on the test plants	[94]
2-Methyl-4-Chlorophenoxyacetic Acid	Higher loading of the AI herbicide and exhibits better adsorption properties	[95]
Camphorsulfonic Acid and Ciprofloxacin	Remarkable improvement in thermal stability	[97]
Cinnamic Acid	A green pesticide/plant growth regulator	[98]
Hexaconazole and Triadimenol	Loading amount of hexaconazole is higher than triadimenol in the LDHs nanohybrids	[99]
Imazamox	Decreasing water-pollution risk, maintaining efficacy with the advantages of soil compatibility.	[100]
Long-Chain (C-18) Unsaturated Fatty Acid Anions; Elaidate, Oleate, and Linoleate	Reduced affinity of the organo-LDHs to all pesticides, presumably because they lead to structures with reduced hydrophobicity compared to those resulting from the incorporation of linear organic anions.	[101]
Sulfamerazine and Salicylaldehyde	Offer good antimicrobial activity	[102]