Prevalence and factors associated with multidrug-resistant tuberculosis in South India

被引:45
作者
Shivekar, Smita S. [1 ]
Kaliaperumal, Venkatesh [2 ]
Brammacharry, Usharani [3 ]
Sakkaravarthy, Anbazhagi [4 ]
Raj, C. K. Vidya [1 ]
Alagappan, Chitra [1 ]
Muthaiah, Muthuraj [1 ]
机构
[1] Govt Hosp Chest Dis, State TB Training & Demonstrat Ctr, Dept Microbiol, Pondicherry, India
[2] Jawaharlal Inst Postgrad Med Educ & Res, Dept Microbiol, Pondicherry, India
[3] Univ Madras, Dr ALM Postgrad Inst Basic Med Sci, Dept Genet, Chennai, Tamil Nadu, India
[4] Cent Univ, Dept Environm Sci, Kasargod, Kerala, India
关键词
MYCOBACTERIUM-TUBERCULOSIS; HETERORESISTANCE; SUSCEPTIBILITY; RIFAMPIN;
D O I
10.1038/s41598-020-74432-y
中图分类号
O [数理科学和化学]; P [天文学、地球科学]; Q [生物科学]; N [自然科学总论];
学科分类号
07 ; 0710 ; 09 ;
摘要
India accounts for about one-fourth of the global burden of MDR-TB. This study aims to assess the prevalence and factors associated with tuberculosis drug resistance among patients from South India. MTBDRplus assay and MGIT liquid culture performed on 20,245 sputum specimens obtained from presumptive MDR-TB cases during a six-year period from 2013 to 2018 were analyzed retrospectively. Univariate and multivariate logistic regression analysis was carried out to evaluate factors associated with MDR, Rifampicin mono-resistance, and Isoniazid mono-resistance. MDR, Rifampicin mono- resistant and Isoniazid mono-resistant TB were found in 5.4%, 2.5%, and 11.4% cases of presumptive MDR-TB, respectively. Based on the rpoB gene, true resistance, hetero-resistance, and inferred resistance to Rifampicin was found in 38%, 29.3%, and 32.7% of the 1582 MDR cases, respectively. S450L (MUT3) was the most common rpoB mutation present in 59.4% of the Rifampicin resistant cases. Of the 3390 Isoniazid resistant cases, 72.5% had mutations in the katG gene, and 27.5% had mutations in the inhA gene. True resistance, heteroresistance, and inferred resistance accounted for 42.9%, 22.2%, and 17.3% of the 2459 katG resistant cases, respectively. True resistance, heteroresistance, and inferred resistance for the inhA gene were found in 54.5%, 40.7%, and 4.7% cases, respectively. MDR-contact (AOR 3.171 95% CI: 1.747-5.754, p-0.000) treatment failure (AOR 2.17595% CI: 1.703-2.777, p-0.000) and female gender (AOR 1.315 95% CI: 1.117-1.548, p-0.001), were positively associated with MDR-TB. Previous TB treatment did not show a significant positive association with MDR (AOR 1.113 95% CI: 0.801-1.546, p-0.523). Old age (AOR 0.994 95% CI: 0.990-0.999, p-0.023) and HIV seropositivity (AOR 0.580 95% CI: 0.369-0.911, p-0.018) were negatively associated with MDR-TB. Although Rifampicin mono-resistance had a positive association with treatment failure (AOR 2.509 95% CI: 1.804-3.490, p<.001), it did not show any association with previous TB treatment (AOR 1.286 95% CI: 0.765-2.164, p-0.342) or with history of contact with MDR-TB (AOR 1.813 95% CI: 0.591-5.560, p-0.298). However, INH mono-resistance showed a small positive association with the previous history of treatment for TB (AOR 1.303 95% CI: 1.021-1.662, p-0.033). It was also positively associated (AOR 2.094 95% CI: 1.236-3.548, p-0.006) with MDR-TB contacts. Thus INH resistance may develop during treatment if compliance has not adhered too and may be easily passed on to the contacts while Rifampicin resistance is probably due to factors other than treatment compliance. MDR-TB, i.e. resistance to both Rifampicin and Isoniazid, is strongly correlated with treatment failure, spread through contact, and not to treatment compliance. The temporal trend in this region shows a decrease in MDR prevalence from 8.4% in 2015 to 1.3% in 2018. A similar trend is observed for Rifampicin mono-resistance and Isoniazid mono-resistance, pointing to the effectiveness of the TB control program. The higher proportion of inferred resistance observed for Rifampicin compared with INH may indicate a surfeit of mechanisms that enable rifampicin resistance. Association of MDR-TB with age, gender, and HIV status suggest the role of the immune system in the emergence of the MDR phenotype.
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页数:11
相关论文
共 29 条
  • [11] Rifampin Heteroresistance in Mycobacterium tuberculosis Cultures as Detected by Phenotypic and Genotypic Drug Susceptibility Test Methods
    Folkvardsen, Dorte Bek
    Thomsen, Vibeke O.
    Rigouts, Leen
    Rasmussen, Erik Michael
    Bang, Didi
    Bernaerts, Gertjan
    Werngren, Jim
    Toro, Juan Carlos
    Hoffner, Sven
    Hillemann, Doris
    Svensson, Erik
    [J]. JOURNAL OF CLINICAL MICROBIOLOGY, 2013, 51 (12) : 4220 - 4222
  • [12] Mechanisms of heteroresistance to isoniazid and rifampin of Mycobacterium tuberculosis in Tashkent, Uzbekistan
    Hofmann-Thiel, S.
    van Ingen, J.
    Feldmann, K.
    Turaev, L.
    Uzakova, G. T.
    Murmusaeva, G.
    van Soolingen, D.
    Hoffmann, H.
    [J]. EUROPEAN RESPIRATORY JOURNAL, 2009, 33 (02) : 368 - 374
  • [13] Sex differences in immune responses
    Klein, Sabra L.
    Flanagan, Katie L.
    [J]. NATURE REVIEWS IMMUNOLOGY, 2016, 16 (10) : 626 - 638
  • [14] Factors contributing to the high prevalence of multidrug-resistant tuberculosis: a study from China
    Liang, Libo
    Wu, Qunhong
    Gao, Lijun
    Hao, Yanhua
    Liu, Chaojie
    Xie, Yanguang
    Sun, Hong
    Yan, Xinglu
    Li, Fabin
    Li, Honghai
    Fang, Hongxia
    Ning, Ning
    Cui, Yu
    Han, Liyuan
    [J]. THORAX, 2012, 67 (07) : 632 - 638
  • [15] Rates and risk factors for drug resistance tuberculosis in Northeastern China
    Liu, Qiao
    Zhu, Limei
    Shao, Yan
    Song, Honghuan
    Li, Guoli
    Zhou, Yang
    Shi, Jinyan
    Zhong, Chongqiao
    Chen, Cheng
    Lu, Wei
    [J]. BMC PUBLIC HEALTH, 2013, 13
  • [16] Genomic analysis of globally diverse Mycobacterium tuberculosis strains provides insights into the emergence and spread of multidrug resistance
    Manson, Abigail L.
    Cohen, Keira A.
    Abeel, Thomas
    Desjardins, Christopher A.
    Armstrong, Derek T.
    Barry, Clifton E., III
    Brand, Jeannette
    Chapman, Sinead B.
    Cho, Sang-Nae
    Gabrielian, Andrei
    Gomez, James
    Jodals, Andreea M.
    Joloba, Moses
    Jureen, Pontus
    Lee, Jong Seok
    Malinga, Lesibana
    Maiga, Mamoudou
    Nordenberg, Dale
    Noroc, Ecaterina
    Romancenco, Elena
    Salazar, Alex
    Ssengooba, Willy
    Velayati, A. A.
    Winglee, Kathryn
    Zalutskaya, Aksana
    Via, Laura E.
    Cassell, Gail H.
    Dorman, Susan E.
    Ellner, Jerrold
    Farnia, Parissa
    Galagan, James E.
    Rosenthal, Alex
    Crudu, Valeriu
    Homorodean, Daniela
    Hsueh, Po-Ren
    Narayanan, Sujatha
    Pym, Alexander S.
    Skrahina, Alena
    Swaminathan, Soumya
    Van der Walt, Martie
    Alland, David
    Bishai, William R.
    Cohen, Ted
    Hoffner, Sven
    Birren, Bruce W.
    Earl, Ashlee M.
    [J]. NATURE GENETICS, 2017, 49 (03) : 395 - 402
  • [17] Marahatta S B, 2010, Kathmandu Univ Med J (KUMJ), V8, P392
  • [18] Mishra GP, 2018, J Infect, V1, P26, DOI DOI 10.29245/2689-9981/2018/2.1117
  • [19] Muthaiah Muthuraj, 2017, J Clin Tuberc Other Mycobact Dis, V8, P19, DOI 10.1016/j.jctube.2017.06.001
  • [20] Biological Differences Between the Sexes and Susceptibility to Tuberculosis
    Nhamoyebonde, Shepherd
    Leslie, Alasdair
    [J]. JOURNAL OF INFECTIOUS DISEASES, 2014, 209 : S100 - S106