May 5, 2024

Genomic Surveillance: New Weapon Against the Rise of Deadly “Superbugs”

A recent study highlights the capacity of genomic monitoring technology in controlling the spread and discovering of superbugs or antimicrobial-resistant organisms. Without intervention, deaths due to these organisms might reach 10 million yearly by 2050. The research study promotes a detailed One Health approach, incorporating human, animal, and ecological aspects.
Harnessing new advances in genomic security technology might help find the increase of fatal superbugs.
Harnessing brand-new advances in genomic security innovation could help spot the rise of deadly superbugs and slow their advancement and spread, enhancing international health outcomes, a brand-new Australian research study recommends.
Antimicrobial resistance happens when germs, parasites, infections, and fungi change over time and no longer react to the chemicals and medicines we use to eliminate them. These superbugs make infections more difficult to treat and increase the risk of disease spread, severe illness, and death.

Without significant intervention, worldwide yearly deaths including antimicrobial resistance are estimated to reach 10 million by 2050, with low and middle-income countries bearing the highest concern.
The One Health Approach
The brand-new study, “Genomic security for antimicrobial resistance– a One Health perspective,” which was published in Nature Reviews Genetics, highlights the need for a diverse One Health approach to the surveillance of antimicrobial resistance in the environment.
The research was led by Distinguished Professor Steven Djordjevic from the Australian Institute for Microbiology and Infection at the University of Technology Sydney, together with researchers from the University of Melbourne and the University of South Australia.
” The evolutionary nature of antimicrobial resistance makes it a constantly changing and evolving danger. There is no easy service, however ongoing genomic surveillance can assist us much better comprehend and alleviate this global health difficulty.”
— Distinguished Professor Steven Djordjevic
International Threat and Genomic Tracing
” Antimicrobial resistance is a complex and international danger needing large-scale, collaborated, and cross-disciplinary cooperation to take on,” said Professor Djordjevic.
” Understanding the evolution, emergence, and spread of antimicrobial resistance within and in between humans, animals, plants and natural environments is important in mitigating the colossal impacts connected with this phenomenon.”
Making use of genomic tracing throughout the COVID-19 pandemic has provided insight into the capacity of genomic innovations to monitor the advancement and spread of antimicrobial genes and mutations.
” Antimicrobial resistance can occur when microorganisms get hereditary info, either by anomaly, recombination or transfer of antibiotic resistance genes from the bacterial gene swimming pool,” said Professor Erica Donner from the University of South Australia.
” Genomic technologies, combined with AI and artificial intelligence, are effective platforms for identifying resistance patterns. They can determine circumstances where microbes and their genetic material relocation between various environments, evaluating the effect of intervention strategies.
” The development of antimicrobial resistance is a complex procedure that includes the overuse and abuse of prescription antibiotics, metals, and disinfectants in medication and agriculture, and widely varying standards of sanitation, health, and water.”
Recommendations and Call to Action
The paper is a call to action for policymakers, highlighting the need to develop nationwide genomic security programs spanning human health, animal health, agriculture, food, and ecological management sectors and to share information at both a national and global level.
” Utilising the technology of microbial genomics in the context of effective cross-sectoral information integration will improve the understanding of antimicrobial resistance development and spread within and across these sectors and determine targeted interventions,” stated Professor Ben Howden from the University of Melbourne.
The researchers supply practical recommendations to carry out genomics-enabled monitoring and mitigation methods and underscore the need for equitable options that allow combination of partners from lower- and middle-income nations.
The recommendations consist of:

” The evolutionary nature of antimicrobial resistance makes it a continuously altering and progressing hazard. There is no simple option, however ongoing genomic security can assist us better understand and reduce this global health challenge,” stated Professor Djordjevic.
Reference: “Genomic monitoring for antimicrobial resistance– a One Health viewpoint” by Steven P. Djordjevic, Veronica M. Jarocki, Torsten Seemann, Max L. Cummins, Anne E. Watt, Barbara Drigo, Ethan R. Wyrsch, Cameron J. Reid, Erica Donner and Benjamin P. Howden, 25 September 2023, Nature Reviews Genetics.DOI: 10.1038/ s41576-023-00649-y.

Establishing a nationwide One Health antimicrobial resistance monitoring program integrating genomics
Increase antimicrobial resistance awareness and education and foster partnership
Enhancing laboratory capability in lower and middle-income nations
Encouraging research study and innovation
Strengthening regulation and oversight in agriculture
Improving antibiotic stewardship