A Transformation in Poultry Disease Diagnosis Using Base Molecular Resonance (BMR) Technology
Dr. Majed Hamed Al Saegh / poultry pathologist / Australia
Base Molecular Resonance (BMR) is an innovative, non-invasive diagnostic platform developed by Base Molecular Resonance Technologies (BMRT) to address critical gaps in disease diagnosis in the livestock sector, particularly avian influenza. Unlike traditional diagnostic tools that depend on invasive sampling and laboratory analysis, BMR uses a scanning system based on subatomic resonance frequencies to instantly detect molecular signatures of pathogens such as the avian influenza virus. This innovation represents a major leap forward in early detection and control of infectious diseases in poultry flocks.
The application of BMR in the poultry industry comes at a time when the mass culling of birds during avian influenza outbreaks is raising increasing concern over animal welfare, economic losses, and food security. Since the beginning of recent HPAI outbreaks, over 166 million birds have been culled in the United States alone. BMRT’s technology offers a precise solution by instantly distinguishing infected birds from healthy ones. According to the company, only 5% to 10% of the culled birds in some cases may have actually been infected, highlighting the urgent need for more accurate diagnostic tools. With BMR, farmers and veterinary authorities can make targeted decisions that reduce unnecessary culling while maintaining disease control.
Scientifically, BMR’s accuracy has been validated through blind and double-blind trials conducted by the Centre for Applied Innovation at York St John University in the UK. These trials demonstrated 100% accuracy in detecting cancerous tissues, nuclear materials, and biological compounds. The research was led by Professor Philippe B. Wilson, confirming the applicability of this technology in both human and animal health. BMRT has since expanded its use to include diagnosis of livestock diseases such as avian influenza, African swine fever, bovine spongiform encephalopathy, foot-and-mouth disease, and others.
What distinguishes BMR technology is its speed, accuracy, and ease of use. It eliminates the need for physical sample collection, reduces stress in animals, avoids diagnostic delays, and enables immediate on-farm application. These features position BMR as a powerful tool for both real-time outbreak response and routine monitoring and biosecurity enhancement. Furthermore, its adaptability for use in cattle, pigs, and other species points to a broader future role in surveillance systems under the One Health framework.
Despite its promise, BMR technology still requires further peer-reviewed studies, regulatory approval, and field integration before becoming a standard diagnostic method. However, the current evidence supports its transformational potential. BMR could play a vital role in reducing reliance on mass depopulation policies, protecting animal welfare, improving economic outcomes for farmers, and supporting global food security through intelligent and humane disease control strategies.
