Skip to main content
. 2020 Oct 21;8:517964. doi: 10.3389/fpubh.2020.517964

Table 3.

Perception on antimicrobials of students who agreed or strongly agreed to the questions across eight Faculty of Veterinary Medicines, Africa, 2014.

Variables Strongly agreed/agreed
African countries Veterinary class
Nigeria n (%) Sudan n (%) South Africa n (%) Pre-final n (%) Final n (%) Overall n (%) χ2 p-valuea
1. Antimicrobial resistance is an increasing global threat to human and animal health 101 (98.1) 3 (1.8) 71 (100) 97 (55.7) 77 (44.3) 174 (50.7) 11.55 0.001b
2. The misuse of antimicrobials by veterinary practitioners contributes significantly to antimicrobial resistance 92 (89.3) 22 (12.6) 60 (84.5) 91 (52.9) 81 (47.1) 172 (50.1) 5.60 0.06
3. The misuse of antimicrobials by farmers contributes significantly to antimicrobial resistance 94 (93.1) 12 (7.0) 70 (98.6) 98 (56.0) 77 (44.0) 175 (51.5) 13.99 0.001b
4. The inappropriate use of antimicrobials in food-producing animals significantly contributes to antimicrobial resistance in human pathogens 89 (87.3) 17 (9.9) 43 (60.6) 84 (56.8) 64 (43.2) 148 (43.5) 9.89 0.002b
5. The inappropriate prescription of antimicrobials by human medical doctors is the main contributor to antimicrobial resistance in human pathogens 76 (74.5) 19 (11.1) 67 (94.4) 84 (51.9) 78 (48.1) 162 (47.5) 3.01 0.083b
6. I have received formal lectures on the rational use of antimicrobials during my under-graduate training 100 (98.0) 23 (13.2) 70 (98.6) 103 (53.6) 89 (46.4) 192 (56.1) 8.28 0.004b
7. My under-graduate training has prepared me well for making informed decisions when choosing an ideal antimicrobial for an individual patient 92 (90.2) 8 (4.6) 54 (76.1) 83 (53.9) 71 (46.1) 154 (44.9) 5.43 0.02b
8. As an individual in practice, I can significantly contribute to preventing an increase in antimicrobial resistance 99 (97.1) 13 (7.4) 60 (84.5) 98 (57.0) 74 (43.0) 172 (50.0) 15.14 <0.0001b
9. The misuse of antimicrobials was evident in the facilities where I have trained 41 (41.0) 67 (39.4) 17 (23.9) 53 (42.4) 72 (57.6) 125 (37.1) 1.40 0.237
10. Governing bodies in Africa are doing enough to help prevent a rise in antimicrobial resistance 25 (24.5) 74 (42.0) 1 (1.4) 42 (42.9) 56 (57.1) 100 (28.5) 0.74 0.381
11. Educating lay people on the importance of antimicrobials as controlled scheduled compounds will have a positive effect on decreasing the rise in antimicrobial resistance 85 (84.2) 10 (5.8) 62 (87.3) 84 (53.8) 72 (46.2) 156 (45.9) 5.81 0.016b
12. The use of antimicrobials in the food-producing animal industry (farm animals) contributes more to antimicrobials resistance than their use in companion animals 87 (85.3) 34 (19.8) 36 (50.7) 76 (48.7) 80 (51.3) 156 (45.7) 0.51 0.477
13. Banning the use of prophylactic antimicrobials in food-producing animals will have a negative effect on animal welfare 53 (52.0) 53 (31.9) 32 (45.1) 64 (46.7) 73 (53.3) 137 (40.9) 0.002 0.963
14. Banning the use of prophylactic antimicrobials in food-producing animals will have a positive effect on decreasing the rise in antimicrobial resistance 68 (68.7) 45 (26.6) 40 (56.3) 77 (50.7) 75 (49.3) 152 (45.2) 1.72 0.189
15. Banning the use of antimicrobials as growth promoters in food-producing animals will have a positive effect on decreasing the rise in antimicrobial resistance 74 (74.0) 27 (16.0) 41 (57.7) 71 (50.7) 69 (49.3) 140 (41.7) 1.31 0.252
16. Improved use of vaccines, biosecurity measures, and hygiene will decrease the need for antimicrobials in the food-producing industry 87 (86.1) 7 (4.1) 68 (95.8) 87 (53.7) 75 (46.3) 162 (47.9) 6.58 0.01b
17. Adhering to meat and milk withdrawal periods will help decrease the rise in antimicrobial resistance in human pathogens 94 (94.0) 6 (3.5) 48 (67.6) 80 (54.1) 68 (45.9) 148 (43.8) 5.65 0.017b
18. Broad-spectrum antimicrobials are ideal to use as first-line antimicrobials 62 (61.4) 61 (36.3) 27 (38.0) 83 (56.1) 65 (43.9) 148 (44.0) 9.91 0.002b
19. Third and fourth generation antimicrobials should only be used as a last resort in treatment 50 (51.0) 23 (14.0) 62 (87.3) 76 (56.3) 59 (43.7) 135 (40.9) 8.14 0.017b
20. Long-acting antimicrobials are more ideal for use in food-producing animals than shorter-acting equivalents 31 (30.7) 81 (47.9) 15 (21.1) 58 (46.4) 67 (53.6) 125 (37.1) 0.019 0.891
21. Cultures and antibiotic sensitivity testing (antibiograms should be done as frequently as possible to guide antimicrobial use) 94 (93.1) 8 (4.7) 69 (97.2) 91 (53.2) 80 (46.8) 171 (50.7) 5.07 0.024b
22. Financial constraints of animal owners in Africa disallow the use of cultures and antibiotic sensitivity testing e.g., antibiograms during an infection 77 (77.0) 21 (12.3) 55 (77.5) 82 (53.6) 71 (46.4) 153 (45.3) 5.74 0.017b
23. Drug legislation in Africa is on par with legislation in the rest of the world 40 (39.2) 82 (48.5) 13 (18.3) 66 (49.6) 67 (50.4) 133 (39.3) 0.587 0.444
24. I am confident that new classes of antimicrobials will be available in the near future to solve current resistance problems 57 (55.9) 20 (11.8) 5 (7.0) 37 (45.1) 45 (54.9) 82 (24.2) 0.187 0.665
25. The choice of an antimicrobial(s) by a veterinarian should largely be determined based on the cost implications to the farmers 71 (69.6) 51 (30.0) 14 (19.7) 63 (46.3) 73 (53.7) 136 (40.1) 0.070 0.792
26. I am confident in my ability to choose the ideal antimicrobial agents for a specific patient/group of animals in order to ensure optimal efficacy and safety 87 (86.1) 8 (4.7) 28 (39.4) 59 (48.0) 64 (52.0) 123 (36.3) 0.088 0.767
a

χ2 test;

b

p < 0.05 refers to the significant statistical difference in the percentage/proportions between pre-final year and final-year veterinary students who strongly agreed/agreed to the questions regarding antimicrobial resistance.