Stable flies, Stomoxys calcitrans (L.) are global pests of livestock, companion animals, and humans. These flies inflict painful bites and cause significant economic losses to producers by reducing livestock production. In addition, they have been associated with the mechanical transmission of several pathogens causing disease in animals. Management of this species is difficult because: 1) their developmental habitats are often ephemeral accumulations of decomposing vegetation, 2) they can exploit cultural practices in many agricultural and urban environments, and 3) the adults are highly mobile. An integrated pest management (IPM) approach is required to effectively manage stable flies, including integration of cultural, mechanical, physical, biological, and chemical control options. The challenges of stable flies in different animal commodities are discussed, and current and novel technologies for control are presented. Lastly, need for additional research to improve stable fly management methods are discussed.

House flies are the most prevalent synanthropic pest worldwide. Although they seldom reproduce in homes, they invade buildings, cause annoyance, and carry pathogens. Urban pest management personnel are limited in their ability to locate and manage larval habitats, so most house fly management in urban settings focuses on adult fly suppression. Sanitation is probably the most critical component, eliminating odors that attract flies. Source reduction applies where larval habitats can be identified and eliminated. Exclusion involves keeping flies out of structures. Despite all efforts, flies will manage to enter the human environment, so exclusion includes air curtains, fans, screened windows, and doors. Ultraviolet light traps attract and immobilize, while window traps entice flies into devices that entrap them. Sticky tubes and ribbons rely on flies’ inclination to land on vertical lines to entangle them in glue. Even low-tech fly swatters can play significant roles in eliminating individual flies. Timed-release aerosol pyrethrin dispensers can be effective against flies confined in enclosed spaces. Toxic baits have limited use in urban settings. Chemical suppression remains a critical component of fly IPM, essential in situations requiring immediate fly elimination.

In the subfamily Stomoxyinae there are currently 18 recognized Stomoxys species, plus two subspecies. Most Stomoxys knowledge was gained through studies with S. calcitrans, a cosmopolitan species, economic pest, and vector. Other Stomoxys spp. are known only from a few trapped adult specimens. Herein, the Stomoxys spp. have been grouped by their ecological diversity, global distribution, and phylogeny and phylogeography. Seven species are dependent to some degree on humans and their activities, particularly animal production. Eleven species are dependent on wildlife to some degree for their development, and little is known about their biology in many cases. Global distributions include one cosmopolitan species (S. calcitrans), twelve species found only in Africa, four species only in Asia, and one species (S. sitiens) in Africa and Asia. Most genetic studies on Stomoxys calcitrans showed little variation in North America, possibly due to the adults’ long range flight capability. Phylogeographic analysis of S. calcitrans showed a differentiation between Oriental populations (first lineage) and populations from Afrotropical, Palearctic, Nearctic, Neotropical and Oceanian regions (second lineage). Genetic studies were followed by sequencing of the Stomoxys calcitrans genome and phylogenetic studies of the Stomoxys genus using 10 of the known species. Phylogenetic relationships were established.

Aedes albopictus (Skuse) is a container-breeding species with considerable public health importance. To date, Ae. albopictus oviposition behavior has been assessed in outdoor conditions, but only with laboratory-reared specimens. In outdoor large-cage and field studies, we used an attractive self-marking ovipositional device to assess Ae. albopictus skip oviposition behavior. In field studies, 37 wild Ae. albopictus that visited an attractive self-marking ovisite were subsequently captured at a sticky ovitrap within a 4-d period. Because the average Ae. albopictus gonotrophic period is 4.5–6 d, the wild-caught Ae. albopictus visited at least two oviposition sites within a single gonotrophic period. This provided field-based indirect evidence of skip oviposition. The mean distance traveled (MDT) during the 20-d evaluations ranged from 58 to 78 m. The maximum observed distance traveled was 149 m, which was the outer edge of our trapping ability. As populations of Ae. albopictus increased, the MDT during the 4- and 20-d post-marking period increased significantly. Additional observations of wild-marked and captured Aedes triseriatus (Say) are discussed.

Stable fly, Stomoxys calcitrans (L.) (Diptera: Muscidae), management can be difficult, especially in situations where pesticide usage is restricted or disallowed. Traps have been used for monitoring stable flies, but have rarely been used for management. The Knight Stick (KS) trap recently became available, and preliminary studies indicated that it might be an improvement to traps currently in use. The Olson Sticky Fly trap was chosen as the control trap for the purpose of comparisons. Both traps attract stable flies by alteration of light waves and capture flies on a sticky wrap covering the trap base. The KS trap captured 3× more stable flies than the Olson trap, whereas the Olson trap base covered with the KS Sticky wrap captured 3–5× more stable flies than the Olson trap base with the standard Olson Sticky wrap. This indicated inherent attraction from the KS Sticky wrap. This was supported when KS Tank wraps, a larger version of the KS Sticky wraps, applied to 51 kg of liquid propane (LP) tanks on Mosquito Magnet Independence traps producing CO₂, captured significantly more stable flies and significantly more stable flies per square centimeter of sticky wrap than Olson Sticky Sleeve wraps applied to the LP tanks. In a final study, when two configurations of KS Tank wraps were applied to white plastic barrels and compared with three standard KS traps, mean numbers of stable flies captured were numerically similar. The significance of findings and potential uses for the traps are discussed.