Genome-Wide Analysis of the Cation ATPase Gene Family in Musca domestica L. (Diptera: Muscidae)
Musca domestica L. is a significant pest threatening human and animal health by transmitting
pathogens and causing substantial economic losses. Widespread resistance to traditional
insecticides necessitates the discovery of novel molecular targets for vector control. The
Cation ATPase gene family, essential for fundamental physiological processes such as cellular
homeostasis, nerve impulse transmission, and osmoregulation, represents a promising target.
This study presents a comprehensive genome-wide analysis identifying 36 Cation ATPase
genes across the genomes of M. domestica, Aedes albopictus, and Drosophila melanogaster.
Gene structures, conserved motifs, and physicochemical properties were thoroughly
characterized. The 13 M. domestica Cation ATPase proteins exhibited amino acid lengths
ranging from 927 to 1602 residues and molecular weights ranging from 102.4 to 179.8 kDa.
Their theoretical isoelectric points ranged from 5.30 to 6.11, while their aliphatic index values
(84.72–101.78) revealed high aliphatic content. Comparative phylogenetic analyses elucidated
their evolutionary history and structural divergence. Furthermore, 3D modeling, proteinprotein
interaction networks, and Gene Ontology analyses evaluated functional properties.
In silico annotations indicate critical roles in calcium and metal ion homeostasis, alongside
the transmembrane transport of inorganic cations. Domain analyses confirmed the presence
of P-type ATPase domains, indicating active participation in cytosolic calcium regulation.
Providing the first comprehensive analysis of the Cation ATPase family in M. domestica, this
research establishes a baseline framework for developing innovative vector control strategies.
