Antimicrobial resistance in human and animal pathogens in Zambia, Democratic Republic of Congo, Mozambique and Tanzania: an urgent need of a sustainable surveillance system
© Mshana et al.; licensee BioMed Central Ltd. 2013
Received: 15 July 2013
Accepted: 8 October 2013
Published: 12 October 2013
A review of the published and unpublished literature on bacterial resistance in human and animals was performed. Sixty-eight articles/reports from the Democratic Republic of Congo (DRC), Mozambique, Tanzania and Zambia were reviewed. The majority of these articles were from Tanzania. There is an increasing trend in the incidence of antibiotic resistance; of major concern is the increase in multidrug- resistant Escherichia coli, Klebsiella pneumoniae, Staphylococcus aureus, Vibrio cholera, non-typhoid Salmonella and other pathogens responsible for nosocomial infections. The increase in methicillin- resistant Staphylococcus aureus and extended-spectrum beta-lactamase (ESBL) producers in the countries under review confirms the spread of these clones worldwide. Clinical microbiology services in these countries need to be strengthened in order to allow a coordinated surveillance for antimicrobial resistance and provide data for local treatment guidelines and for national policies to control antimicrobial resistance. While the present study does not provide conclusive evidence to associate the increasing trend in antibiotic resistance in humans with the use of antibiotics in animals, either as feed additives or veterinary prescription, we strongly recommend a one-health approach of systematic surveillance across the public and animal health sectors, as well as the adherence to the FAO (Food and Agriculture Organization)-OIE (World Organization of animal Health) –WHO(World Health Organization) recommendations for non-human antimicrobial usage.
The introduction of penicillin, in the early 1940s, was perceived as marking the end of infectious diseases . However, the emergence of resistant strains was reported just a few years after its use. Since then, resistant clones to various classes of antibiotics have been found to spread worldwide . In some areas, more than 90% resistance has been reported to commonly used antibiotics such as penicillin, ampicillin, co-trimoxazole and gentamicin . The overuse of antibiotics in human and animals has contributed to the emergence of resistant clones [4, 5]. It is a fact that the availability of antimicrobials and their proper use have reduced morbidity and mortality due to infectious disease [http://www.cdc.gov/drugresistance/index.html]. In developed countries, the use of antibiotics is strictly controlled, which is not the case in developing countries. The treatment of bacterial infections in Africa is largely empirical and in most instances, there are no laboratory results to guide therapy. Moreover, there are no data on common bacterial isolates and their susceptibility patterns from larger surveillance studies aimed at developing tools for therapeutic guidance. Developing countries bear 95% of the global infectious diseases burden and rely on empirical antimicrobial treatment to counteract these diseases . This has resulted in many infectious diseases, once easily curable, to become untreatable [7–9].
The burden of antimicrobial resistance (AMR) is rapidly growing across antibiotic classes. The emergence of methicillin- resistant Staphylococcus aureus (MRSA) clones spreading among animals and human has made AMR an issue of public health importance . Recently, the emergence of NDM-1 has made infection due to multi-resistant gram negative bacteria untreatable, especially in developing countries where there is no alternative treatment available . Unfortunately, coordinated surveillance of the clones involved is lacking, especially in developing countries in Africa.
This review was undertaken to summarize the patterns and trends of resistance to commonly used antibiotics among common bacterial isolates from humans and animals from 1990s to 2012 in Democratic Republic of Congo (DRC), Mozambique, Tanzania and Zambia. The data from this review will be used to provide recommendations on priority research area that could address the development and spread of antibiotic resistance in humans and animals.
In this review, literature from four different countries is appraised and reported. Though these countries present differences in terms of local agriculture, economy, state of health care services, political situation, etc., they all have no clear policy on antibiotic use hence at risk of increased antibiotic resistance. Also, these countries have all introduced the one-health concept under the South African Centre of Infectious Diseases (SACIDS) aiming at providing data for evidence based management of infectious diseases.
Study design and search strategy
A systematic literature review was conducted for original articles on bacterial isolates, resistance patterns in humans and animals from DRC, Mozambique, Tanzania and Zambia, published from 1990 to the end of July 2012. The study focused on all bacterial pathogens with the exception of Mycobacterium tuberculosis. A systematic search of online databases including PubMed/Medline, Embase, Popline, Global Health, Google and Web of Knowledge was undertaken. We used the search terms “bacterial isolate resistance patterns”, “antibiotic use”, “antimicrobial resistance”, “microbial resistance”, “susceptibility”, “resistance surveillance” in “human or animal use” combined with the name of the different countries of interest. References of all articles were searched to identify further articles. Articles were reviewed and publications using original data on resistance in animals and humans were included. The studies’ design, setting, demographic data and microbiological methods were appraised. All studies involved human were approved by ethics committee and informed consent obtained. We also consulted the WHO, OIE and FAO websites for relevant publications. New links displayed beside the abstracts were followed and retrieved.
Overview of study design and microbiological susceptibility methods
Articles distribution per country and source of samples
Escherichia coli and Klebsiella pneumoniae causing Urinary tract infections (UTI) and blood stream infections
Resistance rates in different studies%Escherichia coli(range)
Mean resistance n/N* (%)
92, 96, 53, 98, 100, 69, 80 (53 – 100 )
53, 70, 88, 85, 37 (37 – 88 )
7, 38, 6, 23, 32, 44 (6 – 44 )
80, 65, 95,97, 50 (50 – 97 )
8, 30, 12, 9, 13 (8 – 30 )
51, 29, 14, 27, 19 (14 – 51 )
50, 11, 14 (11 – 50 )
23, 6, 13, 31(6 – 31 )
Resistance rates in different studies Klebsiella pneumoniae % (range)
56, 100, 98 (56 – 100)
11, 78, 86 (11 – 86)
11, 28, 38 (11 – 38)
56, 83, 95 (95 – 56)
19, 19, 44 (19 – 44)
33, 66, 46 (33 – 66)
18, 21, 22 (18 – 22)
Resistance rate in different studies%Escherichia coli(range)
Mean resistance n/N* (%)
84, 96 , 85, 100, 96 (84 – 100)
40, 25, 69, 86 (25 – 86)
55, 59 (55 – 59)
13, 29, 46, 68, 28 (13 – 68)
72, 87, 54, 77, 90 (54 – 90)
40, 8, 8, 4 (4 – 40)
12, 54, 50 (12 – 54)
0.0, 12, 50, 50 (0 – 50)
0.0, 0.0, 4 (0 – 4)
Resistance rate in different studies % Klebsiella pneumoniae (range)
91, 100, 100, 100, 100 (91 – 100)
32, 47, 38, 84 (32 – 84)
97/194 ( 50)
67, 62 (62–67)
40, 47, 47, 67, 18 (18 – 67)
63, 63, 94, 79, 70 (64 – 94)
0.00, 0.00, 0.00, 8 (0 – 8)
6, 21, 15, 49 (6 – 49)
0.00, 0.00, 2 (0 – 2)
One study in Tanzania reported data from surveillance study . In that study a total of 1936 and 1771 of E.coli and Klebsiella pneumoniae were isolated in 2 year period from 1st January 1998 to 31st December 1999. Majority of these isolates were from urine specimens, others were from pus, blood and other routine specimens. Escherichia coli were 80%, 28%, 5%, 77%, 8%, 76%, 32% and 13% resistant to ampicillin, amoxicillin/clavulanic acid, ceftazidime, tetracycline, gentamicin, co-trimoxazole, nitrofurantoin and quinolones while the rates of resistance to similar antibiotics for Klebsiella pneumoniae were 85%, 32%, 6%,66%, 14%, 69%, 53% and 6% respectively.
Extended –spectrum beta-lactamase (ESBL) producing Escherichia coli and Klebsiella pneumoniae
Data on ESBL producing E. coli and Klebsiella pneumoniae are limited in all the countries under review. Of 302 E. coli tested for ESBL production in these countries 88/302 (29%) were found to be ESBL producers while of 283 Klebsiella pneumoniae tested 116/282 (41%) were ESBL producers [3, 19, 27–30]. Different ESBL alleles have been reported including CTX-M-15 Escherichia coli ST 131 which has been reported worldwide . Other reported alleles include TEM-63, SHV-2a and SHV-12 .
Blood stream infection due to Salmonella spp
Resistance rates in different studies%(range)
Mean resistance n/N* (%)
100, 65, 74, 69 (65 – 100)
100, 58, 66, 38 (38 – 100)
100, 40, 55, 85 (40 – 100)
16, 23 (16 – 23)
0, 8, 15 (0 – 15)
Salmonella spp, Shigella spp, Vibrio cholera, Campylobacter spp and diarrheagenic E.coli; and their susceptibility patterns
Antimicrobial resistance rates of Salmonella spp, Shigella spp and diarrheagenic E. coli from the stool, Zambia, DRC, Mozambique and Tanzania
Mean resistance n/N* (%)
78, 18 (18 – 78)
94, 15 (15 – 94)
97, 56 (56 – 97)
97, 84 (84 – 97)
94, 52 (52 – 94)
98, 66 (66 – 98)
72, 100 (72 – 100)
71, 60, 58 (58 – 71)
45, 100 (45 – 100)
48, 100 (48 – 100)
Five studies [51–55] investigated the presence diarrheagenic E. coli strains in these countries with 3 of studies [51, 52, 54] describing susceptibility pattern to various antibiotics. The mean resistance rates of diarrheagenic E. coli isolated in these countries for ciprofloxacin, nitrofurantoin, co-trimoxazole, chloramphenicol, tetracycline, erythromycin and ampicillin are seen in Table 5.
Resistance rate in different studies: Escherichia coli%(range)
Mean resistance n/N* (%)
80, 90, 88 (80 – 90)
82, 74, 83 (74 – 83)
63, 67 (63 – 67)
36, 71, 91 (36 – 91)
4, 96 (4 – 96)
Resistance rates Campylobacter jejuni % (range)
74, 22 (22 – 74)
35, 0.0 (0 – 35)
16, 11 (11 – 16)
Methicillin-resistant Staphylococcus aureus (MRSA) and Health care-associated infections (HCAIs)
Resistance rate in different studies%(range)
Mean resistance n/N* (%)
90, 90, 85 (85 – 90)
35, 5, 7 (5 – 35)
31, 73 (31 – 73)
37, 7 (7 – 37)
48, 28 (28 – 48)
31, 16, 2, 27, 2, 8 (2 – 31)
Nine studies [26, 62, 63, 67–72] reported the resistance patterns of Staphylococcus aureu s with only two studies providing molecular insights of MRSA. The mean resistance rates ranges from 5% to 88% to various antibiotics as seen in Table 7. Regarding spa types, sixteen different spa types (t012, t021, t122, t186, t279, t701, t1855, t1877, t224, t084, t304, t934, t1247, t2864, t7722 and t7723) were observed in one study in Zambia , while in Tanzania; the new MRSA clone ST1797/t7231 has been isolated thus emphasizing the diversity of MRSA clones in Africa . In Mozambique; of 24 MRSA isolates 6(25%), 3(12.5%) and 1(4.2%) were also resistant to tetracycline, erythromycin and co-trimoxazole and only 1 strain was resistant to all antibiotics tested .
Antibiotic resistance in isolates from animals
Eight reviewed studies [51, 59, 73–78] investigated the magnitude of bacterial diseases in animals with only 4 studies [51, 59, 77, 78] reporting resistance profile to various antibiotics. As for Escherichia coli from human; Escherichia coli from animals exhibited high resistance rates ranging from 50% for tetracycline to 86% for ampicillin (Table 7). Salmonella enteritidis was found to contaminate 3.8% and 4.7% of eggs and chicken carcasses respectively. All Salmonella enteritidis isolates were found to be sensitive to gentamicin, ampicillin, tetracycline, co-trimoxazole, amoxicillin, furazolidine and chloramphenicol.
In the developing countries under review, there are limited data from large surveillance studies on antimicrobial resistance. In addition few short clinical studies document the susceptibility pattern of common pathogens from human and animals. This may partly be due to the lack of microbiological facilities in many health facilities in developing countries . Our findings emphasize the need for coordinated efforts to improve the diagnosis of infectious diseases in developing countries coupled with surveillance of antimicrobial resistance in these countries. Together with the increased effort by WHO to control malaria transmission, other potential causes of fever should be taken into consideration; and appropriate antibiotic treatment will reduce morbidity and mortality resulting from other causes of fever.
Despite few studies blood stream and urinary tract infections have been found to be common in these countries as demonstrated in this review and it should be noted that the endemicity of HIV has changed their epidemiology in Africa. Apart from Salmonella spp; multi-drug Escherichia coli and Klebsiella pneumoniae were found to be common causes of blood stream infections and UTI. Increased trend of these isolates to become resistant to ampicillin, gentamicin and third generations’ cephalosporins was noted; this could be due to overuse of these drugs in the community and hospitals, in all countries reviewed no clear antibiotic policy was found.
ESBL has been found to be a threat, especially as a cause of nosocomial infections. Prevalence as high as 50% have been observed among Klebsiella pneumoniae from inpatients in these countries. The occurrence of the Escherichia coli clone ST 131 in Tanzania confirms that resistant clones can spread from one part of the world to another . Low mean resistance rates to meropenem were observed in these countries; this could be explained by the fact that this drug is expensive and not available in the market. There is an urgent need of antibiotic policy in these countries because in countries where carbapenems have been misused, such as India or Pakistan, outbreaks of carbapenems resistant Escherichia coli and Klebsiella pneumoniae have been experienced . Recently, the emergence of NDM-1 plasmid mediated carbapenems resistance has been noted, spreading from India to Europe, USA and Africa. Joint efforts are needed to control the spread of NDM-1.
In this review few studies were found to address enteric pathogens, it was noted that Shigella spp were more resistance than Salmonella spp; an increase trend of multi--drug resistant Shigella spp in DRC was noted. Similarly most of diarrheagenic Escherichia coli were resistant to commonly used antibiotics (ampicillin, co-trimoxazole, tetracycline and erythromycin). This could be due to self prescription of these antibiotics for the treatment of diarrhea episodes as evidenced by increased resistance of Vibrio cholerae strains between outbreaks in Zambia and Tanzania. In all countries under review, many patients buy antibiotics from private pharmacies and drug shops for self-medication before seeking medical professional care [80–82]. In addition Campylobacter spp were found to be resistant to ciprofloxacin, cefuroxime and erythromycin. This situation needs to be further investigated with standardize microbiological method so that the real magnitude can be established or confirmed.
In addition, MRSA appears to be an emerging problem; the problem might be underestimated because not all laboratories in these countries are performing MRSA identification. However Staphylococcus aureus has been the major cause of SSI, as documented in few studies from these countries. The increase trend of MRSA as noted in Tanzania; necessitate the coordinated surveillance to determine the evolution of these strains in Africa. MRSA isolates have been isolated from animals and we need, therefore, to compare the genotypes between animals and humans, as evidenced by the diversity of MRSA genotypes in Tanzania and Zambia [68–70].
Few laboratories are routinely conducting testing for ESBL and MRSA detection. This observation stresses the need for governmental and non- governmental organizations to provide sustainable support to improve laboratory capacity in developing countries. This should go hand in hand with the establishment of a quality assurance system to ensure quality microbiological results from all laboratories. As noted in Tanzania, there is an increased resistance trend to ceftriaxone and ceftazidime among isolates causing nosocomial infections. Improving diagnostic facilities and research capacity to determine the evolution of ESBL and MRSA clones in Africa is no longer an option but is mandatory, especially when the treatment of ESBL producing isolates and MRSA becomes too expensive for countries like DRC, Mozambique, Tanzania and Zambia.
Unauthorized use of antibiotics seems to be common, both in medical and veterinary settings. While we have found no evidence linking antimicrobial resistance in human cases with the use of similar antibiotics in animals, there is a need for a coordinated one health based surveillance of the antimicrobial resistance in humans and animals. It appears also relevant to follow the recommendations of the Joint FAO-OIE-WHO on non-human antimicrobial usage.
Relevant information on bacterial diseases is limited in DRC, Mozambique, Tanzania and Zambia. Moreover, there are no national policies guiding surveillance. Lack of detailed microbiological method was noted in various studies with no detailed information regarding quality assurance; but despite this limitation an increased trend of resistance to commonly used antibiotics such as ampicillin, co-trimoxazole, gentamicin, erythromycin, tetracycline and third generation cephalosporins was noted. This might be exacerbated by behavioral factors, incentive motivate prescribing, and the dispensing and purchasing of antibiotics when they are inappropriate for treating a specific condition. Other contributing factors include the drugs’ quality or the use of partial doses, and patients’ demand for symptomatic eradications. A systematic national surveillance system is urgently needed to provide data on the levels of bacterial diseases and drug resistance in common pathogens from hospitals and communities. In addition, a comparative molecular epidemiology study to compare human and animals isolates is urgently needed to shade a light of the transmission of bacterial pathogens, especially at the community level. The rising incidence of MRSA and ESBL infections points to the need to include the heightened the regimes for hospital facility cleanliness as part of the policy for the use of antibiotics and antibiotic stewardship in order to minimize the risk of hospital-acquired infections with MRSA and ESBL producing isolates.
This study was supported mainly by a grant from the Rockefeller Foundation (2011-DSN-307) to SACIDS at Sokoine University and secondarily by the grant from the Wellcome Trust (WT087546MA) also to SACIDS.
The authors acknowledge the support provided by their respective universities and the encouragements to undertake this one health based review.
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