Figure 1: Selected studies on antimicrobial resistance (AMR) bacteria from animals and their products and foods.
|
Country of origin |
Food sample |
Antimicrobial resistance |
|
Bangladesh, China, India, Philippines |
Vegetables, pepper leaves, spinach, stolon of taro, hyacinth bean seeds, sweet potato leaves, etc. |
Staphylococcus aureus (S. aureus), Escherichia coli, (E. coli) Klebsiella pneumoniae, (K, pneumoniae) Enterobacter cloacae, (E. cloacae) Enterobacter aerogenes, (E. aerogenes) |
|
China, Vietnam, Pakistan |
White pepper powder, ginger powder, and Szechuan pepper |
Salmonella Enteritidis |
|
Egypt, Brazil, Vietnam |
Poultry, rabbit meat |
Salmonella Weltevreden; E. coli |
|
Italy |
Venus clam |
E. coli |
|
Brazil, Argentina |
Poultry meat |
Salmonella Heidelberg |
|
Brazil, China, Poland, Germany |
Turkey meat/liver |
K. pneumoniae, E. coli, Citrobacter braakii (C. braakii) |
|
Vietnam |
Shrimp |
Vibrio parahaemolyticus (V. parahaemolyticus) |
|
Iran |
Raw bovine milk |
S. aureus E. coli, Listeria monocytogenes (L. monocytogenes), and Salmonella spp. |
|
Thailand (different selected areas) |
Pigs, broiler, fish, etc. |
ESBL-producing E. coli |
|
China |
Raw milk, cooked food products, and raw meat |
Salmonella, L. monocytogenes, and S. aureus |
|
Africa |
Poultry products |
Campylobacter jejuni (C. jejuni), Campylobacter coli (C. coli), Campylobacter lari (C. lari) |
|
Sri Lanka |
Poultry meat and neck skin |
C. jejuni, C. coli |
|
Cuba |
Meat products, dairy products, etc. |
Salmonella, E. coli, Vibrio cholerae, (V. cholerae) Staphylococcus |
|
Pigs |
Methicillin-resistant S. aureus (MRSA) |
|
|
Netherlands (Southern) |
Catfish and eel farms (aquaculture) |
Aeromonas |
|
Ethiopia |
Animal-origin food (e.g., egg sandwiches, raw milk, and raw meat) |
Salmonella spp. |
|
|
ginger root, garlic powder |
Bacillus spp., Stenotrophomonas maltophilia Erwinia spp., E. cloacae, Ewingella americana, E. americana and Staphylococcus spp. |
Figure 2

Figure 3: Transmission routes of antibiotics, resistant genes and drug-resistant bacteria
“The transmission routes of antibiotics, resistance genes, and drug-resistant bacteria. Antibiotic-resistant bacteria and their associated genes can be transmitted in various ways. Over-prescription, patients not completing treatment, lack of diagnosis, unclean facilities, and poor infection control all contribute to the emergence of resistance. Lack of proper diagnosis can lead to inappropriate or wrong choice of drug for treatment. Antibiotics are also used in aquaculture, crop farming, and even animal husbandry. These drugs are not completely used by animals, as certain levels remain and can be transmitted to humans when consumed. Overall, bacteria enter humans through food, soil, air, and direct human-animal contact. Effluents from aquaculture also contribute to the accumulation of resistant pathogens and bacteria in wastewater treatment plants.”
Source: Antimicrobial resistance containment in Africa: Moving beyond surveillance, Biosafety and Health, Volume 6, Issue 1, February 2024, Pages 50-58.
AMR’s Impact on SDG Goals in Africa The African Union AMR Landmark Report goes on to point out it’s not just morbidity and mortality that is of concern when talking of AMR. But the attainment of the 2030 Sustainable Development Goals (SDG) such as Universal Health Coverage (UHC), poverty elimination, health for all, gender equality and economic prosperity are also in jeopardy from AMR. Furthermore, major advances in medical care such as in cancer, treatment of infectious diseases, performing complex surgeries, maternal and child health, all stand to be endangered by the threat that AMR poses. And what is alarming is that by 2050, the projected AMR-related deaths will increase fourfold to touch a whopping 4.1 million annually as the population in Africa is set to double. While Africa has lagged behind in committing 15% of national budgets towards health as per the Abuja Declaration as well as in attaining the SDG goals, 57% of African countries have incorporated into their National Essential Medicine Lists (NEMLs) the AWaRE (Access, Watch, Reserve) classification of antibiotics and nearly half the countries in the region have implemented integrated surveillance systems for AMR. Further, 48% of the countries in Africa have rolled out or initiated multisectoral coordination using the One Health approach. The research study Antimicrobial resistance containment in Africa: Moving beyond surveillance noted that the African region is on the verge of complete eradication or elimination of polio, maternal and neonatal tetanus. However, more than 30 million children under the age of five continue to suffer from vaccine-preventable diseases (VPDs) annually in Africa. Expanding access to vaccination is therefore crucial. Innovation in this area could well be applied to address other AMR issues in the future as well. The issue of lack of access to vaccination is also contiguous with lack of access to antibiotics. So, often, when there is a shortfall in available antibiotics it leads to opting for whatever is easily available although these should not actually be even used as a first line of treatment. Studies have also found that an estimated 70% antibiotics are distributed sans any prescription, compounding the problem as this naturally increases the possibility of AMR resistance developing (Figure 4).Figure 4: Impact of limited access and erratic use of antibiotics in Africa

Figure 5: Priority Pathogens in Sub-Saharan Africa versus WHO Global Priority List

|
Recommendation |
Strategies |
|
Increasing the public’s knowledge of antibiotics and antimicrobial resistance as well as promoting antibiotic stewardship
|
• Open communication about AMR between Health Care Workers and the public • Educating the public about AMR through various communication channels • Development of evidence-based guidelines for antibiotic prescribing • Continuous education on antibiotics for healthcare workers (HCWs) and veterinarians • Building laboratory capacity and promoting diagnostic stewardship |
|
Effective AMR surveillance and collaboration |
• Development of national AMR surveillance plans • Dissemination of AMR surveillance data for decision and policy making • Implementing One Health approach • Collaboration with high-income countries • Training more laboratory scientists and offering them a competitive remuneration |
|
Regulatory enforcement and restricting antibiotics promotion |
• Medicine regulatory authorities should be adequately funded and should be autonomous. • Prohibition of the sale of antibiotics over the counter • Prohibition of unnecessary promotion of antibiotics by pharmaceutical companies |
|
Improve the practice of infection prevention and control (IPC) measures |
• Improve water and sanitation infrastructure in the region. • Promoting immunization against infectious diseases • Educating the public about IPC • Frequent inspection of food outlets and healthcare facilities |
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