The global agricultural sector faces unprecedented challenges, including escalating pathogen resistance and the need for sustainable farming practices. Regulatory bodies worldwide are tightening food safety standards, demanding more rigorous and rapid pathogen screening throughout the supply chain. This technology provides a critical tool for meeting these demands, supporting the transition to smart agriculture and enabling proactive disease management to protect billions in crop value.
Enables highly sensitive detection, identifying trace amounts of Dickeya dadantii often missed by conventional methods.
Provides rapid and accurate diagnosis, precisely identifying pathogens in a short time to support quick decision-making.
Secures strong patent protection, demonstrating clear superiority over existing technologies despite 10 cited prior art documents.
This patent protects a specific primer set, defined by particular nucleic acid sequences, and its use in a highly sensitive method for detecting Dickeya dadantii. The claims, which successfully navigated a crowded prior art landscape with 10 cited documents, demonstrate strong technical superiority and a clear, stable scope of protection, minimizing future invalidation risks.
This patent focuses on specific primer sequences for Dickeya dadantii. White space exists in developing multiplex PCR assays for simultaneous detection of multiple plant pathogens or integrating this detection method with novel automated field sampling and analysis systems.
Dickeya dadantii soft rot can cause up to 50% yield loss in affected fields. Assuming a global potato production value of ~$1.35B (AI est.) and a 25% reduction in damage through early detection, the potential damage reduction is ~$350M/year (AI est.). If an adopting company captures 0.5% of this reduction in the distribution/processing stage, the annual cost savings/damage reduction could be ~$1.35B × 0.5% × 25% = ~$1.5M (AI est.).
X: Detection Accuracy & Specificity
Y: Early Diagnosis & Prevention Efficacy