OPEN ACCESS | Published on : 04-Apr-2026 | Pages: 29-42 | Doi : 10.37446/edibook252025/29-42
India, the world’s second-largest producer of litchi harvests approximately 746,000 metric tonnes annually from ~98,180 ha, yet mean productivity (~7.6 t ha-1) remains well below attainable yields. Among diverse biotic stressors, the litchi stink bug, Tessarotoma javanica (Thunberg) (Hemiptera: Tessaratomidae), has transitioned from a historically inconsequential pest to a regionally significant constraint across eastern India (Bihar, Jharkhand, West Bengal) and adjacent South Asian landscapes. Since 2011, documented outbreaks have precipitated orchard-level fruit losses of 70-100%, with concomitant reports from Bangladesh highlighting transboundary risk and the necessity of coordinated surveillance. This chapter consolidates current evidence on pest distribution, status, and host range; elucidates adult and nymphal biology (oviposition approximately 13 days post-mating; egg clusters of ~14 with ~97% hatch; five nymphal instars; laboratory egg-to-adult development ~142 days); and delineates diagnostic advances, including a 658-bp COI barcode facilitating species-level confirmation. We interrogate hypothesized drivers of proliferation interactions among host phenology, climatic permissivity, and prevailing pesticide regimes and identify phenophase-specific windows of vulnerability from vegetative flushing and anthesis through fruit set. Building on this synthesis, we articulate a next-generation, regionally adaptable management framework: phenology-aligned monitoring and action thresholds; cultural and canopy sanitation; habitat manipulation to conserve and augment natural enemies; judicious, time-specific deployment of selective chemistries to mitigate resistance evolution and non-target impacts; and decision support underpinned by surveillance networks and risk forecasting tools. The chapter concludes with research–extension agenda prioritizing cross-border data harmonization, biological control pipelines, resistance management schemes and rapid molecular diagnostics to contain T. javanica, safeguard smallholder livelihoods and narrow India’s litchi yield gap.
Litchi stink bug, Tessarotoma javanica, host phenology, monitoring, surveillance, next generation strategies, traditional control methods
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