The dual burden of tuberculosis (TB) and diabetes mellitus (DM) has become a major global public health concern. There is mounting evidence from different countries on the burden of TB and DM comorbidity. The objective of this systematic review was to summarize the existing evidence on prevalence and associated/risk factors of TBDM comorbidity at global and regional levels.
Ovid Medline, Embase, Global health, Cochrane library, Web of science and Scopus Elsevier databases were searched to identify eligible articles for the systematic review. Data were extracted using standardized excel form and pilot tested. Median with interquartile range (IQR) was used to estimate prevalence of TBDM comorbidity. Associated/risk factors that were identified from individual studies were thematically analyzed and described.
The prevalence of DM among TB patients ranged from 1.9% to 45%. The overall median global prevalence was 16% (IQR 9.0%-25.3%) Similarly, the prevalence of TB among DM patients ranged from 0.38% to 14% and the overall median global prevalence was 4.1% (IQR 1.8%-6.2%). The highest prevalence of DM among TB patients is observed in the studied countries of Asia, North America and Oceania. On the contrary, the prevalence of TB among DM patients is low globally, but relatively higher in the studied countries of Asia and the African continents. Sex, older age, urban residence, tobacco smoking, sedentary lifestyle, poor glycemic control, having family history of DM and TB illness were among the variables identified as associated/risk factors for TBDM comorbidity.
This systematic review revealed that there is a high burden of DM among TB patients at global level. On the contrary, the global prevalence of TB among DM patients is low. Assessing the magnitude and risk/associated factors of TBDM comorbidity at country/local level is crucial before making decisions to undertake TBDM integrated services.
Citation: Workneh MH, Bjune GA, Yimer SA (2017) Prevalence and associated factors of tuberculosis and diabetes mellitus comorbidity: A systematic review. PLoS ONE 12(4): e0175925. https://doi.org/10.1371/journal.pone.0175925
Editor: Katalin Andrea Wilkinson, University of Cape Town, SOUTH AFRICA
Received: December 7, 2016; Accepted: April 3, 2017; Published: April 21, 2017
Copyright: © 2017 Workneh et al. This is an open access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.
Data Availability: All data are in the journal articles cited within the manuscript.
Funding: The authors have no support or funding to report.
Competing interests: The authors have declared that no competing interests exist.
Diabetes mellitus (DM) and tuberculosis (TB) are major killers of mankind across the globe . The World Health Organization (WHO) global report for 2015 indicates that, there were 10.4 million new cases and 1.4 million deaths resulting from TB . In the same year, 415 million cases and 5.0 million deaths due to DM were registered . About 95% of TB and 75% of the DM cases live in low- and middle income countries. The rising prevalence of DM is a potential threat to TB control. Poorly controlled DM increases the risk of TB and leads to unfavorable TB treatment outcomes [4–5].
WHO has recommended a collaborative framework for the clinical management and control of TBDM comorbidity. Three important intervention strategies namely, establishing mechanisms of collaboration between TB and DM control programs, detection and management of TB in patients with DM, and detection and management of DM in TB patients have been recommended . Some countries in Asia (China and India) have piloted the TBDM collaborative framework and have demonstrated that bi-directional screening for both diseases is feasible [7–10]. It may also be important if other countries implement this strategy to reduce the dual burden of TBDM comorbidity. However, for policy making and implementation of this strategy, it is crucial to primarily understand the magnitude and associated factors of TBDM comorbidity particularly in low- and middle-income countries.
Former studies conducted in various parts of the world have shown that TBDM comorbidity has become a major public health problem. A wide range of estimates on the burden and associated factors of the two comorbid conditions and impact of DM on TB treatment outcome were reported [11–13]. For example, a previous systematic review of bidirectional screening for TBDM comorbidity reported high prevalence of DM among TB patients ranging from 1.9% to 35%. TB prevalence among DM patients ranged from 1.7% to 36% . Similarly, another systematic review done on 13 observational studies reported that DM was associated with an increased risk of TB [relative risk (RR) = 3.11, 95% confidence interval (C.I.) 2.27–4.26] . Several reasons motivated us to do the current systematic review. Firstly, the risk/associated factors of TBDM comorbidity were not included in the previous systematic reviews. Secondly, the numbers of individual studies on TBDM comorbidity conducted after 2010 have increased by 78% compared to the number of studies done before 2010. Thirdly, unlike the periods before six years, bi-directional screenings of TB and DM studies have been emerging from different African countries. Therefore, an updated synthesis of the prevalence and associated factors of the two comorbid conditions is important for policy making, planning and development of TBDM integrated services. This systematic review was thus conducted to summarize the existing evidence on prevalence and associated/risk factors of TBDM comorbidity.
In this systematic review, we included all full text articles that involved human subjects of any age, and that determined either prevalence and risk/associated factors of DM among TB patients or prevalence and associated factors of TB among DM patients. Type of DM was not an inclusion/exclusion criteria and therefore both types were included. Studies reporting prevalence of DM among latent TB patients, prevalence of impaired glucose tolerance among TB patients and incidence of TB among DM patients were excluded from the review. In addition, pharmacological studies related to TBDM comorbid conditions, articles written other than English language, conference papers, abstracts without full texts, articles that didn’t describe journal’s name and corresponding author, articles that reported prevalence/incidence of the two comorbidity conditions stratified by socio-demographic and clinical parameters were excluded from the study.
Search strategy and selection of studies
We searched Ovid Medline from 1946 to March 09/2016, Embase from 1947 to March 09/2016, Global health from1973 to March 09/2016, Cochrane library from 1992- March 09/2016, Web of science from 1900-March 09/2016 and Scopus elsevier from 1996-March 09/2016 using the following medical subject heading (MeSh) and text terms (Table 1). The full strategy was run in Endnote software. We also used hand searching to look for relevant reference lists and journals.
Data extraction and risk of bias assessment
A standardized form using excel sheet was used to extract relevant information. The standardized form was pilot tested in twenty selected articles included in the study. A number of variables including study locations, years of publications, study periods, study designs, number of patients included in the study, and prevalence of TBDM and associated/risk factors were extracted from all studies included in the systematic review. The risk of bias for each study was assessed using study design, sampling technique and sample size determination methods as important domains. In addition, we considered ‘‘type of screening method used” and ‘‘time of screening” for studies that assessed prevalence of DM among TB patients. For studies that analyzed TB prevalence among DM patients, ‘‘type of TB screening method used” was considered as an important domain (Table 2). Some of the above domains were also used in the previously conducted systematic review (12).One reviewer (MHW) searched, extracted the data and assessed the risk of bias. Any ambiguity in the extracted and assessed information was resolved through discussion with the other author (SAY).
Data analysis and syntheses
Descriptive statistics (range and median with interquartile range (IQR)) were used to summarize prevalence rates estimated from individual studies. Due to the observed wide variations in prevalence, and sample sizes used in the reviewed articles, we reported median prevalence rate based on geographical regions. The summaries were described into two groups, i.e. prevalence of DM among TB patients and prevalence of TB among DM patients. Data analyses were performed using Statistical Package for Social Science (SPSS) version 22 Armonk, New York 10504 IBM Corp. The risk/associated factors were grouped into main themes and described accordingly. In addition, findings of the studies were grouped into the different geographical regions of the world depending on where the individual studies were conducted. Each domain assessed for the risk of bias was categorized as either low or high risk of bias depending on the findings of each study. We scored 0 and 1 for low and high risk of bias, respectively. Accordingly, for studies that determined prevalence of DM among TB patients, the overall risk of study bias was calculated out of five total score points. While those with a total point of ≤ 2 were considered low risk, studies with a total value of 3–4 and 5 were considered to have moderate and high risk of bias, respectively. Similarly, for studies that analyzed prevalence of TB among DM patients, the overall risk of study bias was calculated out of four total score points. Consequently, studies that scored a total of ≤1 were considered low risk, and those with a total value of 2 and 3–4 were evaluated to have moderate and high risk of bias, respectively.
A total of 1845 literatures were initially selected for screening. These included 1765 literatures identified from the electronic database search, 59 identified by hand search and 21 literatures identified by reference check (Fig 1). After removing 780 duplicate articles form the total 1845 literatures, 1065 articles remained for further screening. Additional screening by title and abstract resulted in the exclusion of 877 articles and we were left with 188 articles for further screening. We performed full text screening on 188 articles and found that 94 articles were eligible for final analysis [9–10, 14–105]. The criteria for exclusion of the different studies are listed in Fig 1.
TB: tuberculosis, DM: diabetes mellitus, MDR: multi drug resistance.
The 94 studies selected for final analysis had applied different study designs. Majority 36 (38.3%) were cross-sectional studies, 11 (11.7%) were prospective cohort, 9 (9.6%) applied retrospective cohort study design, 21 (22.3%) were medical record reviews, four (4.3%) studies used prospective observational (not clearly specified) method, three (3.2%) used case-controls study design and 10 (10.6%) studies did not describe the type of study design used. The studies represented 33 countries globally and were divided into six regions. Of the total studies included in the analysis, 74 (78.7%) were published between 2011 and 2016, 12 (12.8%) studies were published from 2000 to 2010, and 8 (8.5%) studies were reported between 1957 to 1999 (Table 3).
Risk of bias
The value of risk of bias ranged from 1 to 5 for 78 studies that determined prevalence of DM among TB patients. Based on this assessment, 23 (29.5%) studies were assessed to have low risk of bias, 49 (62.8%) studies had moderate risk of bias and 6 (7.7%) studies were evaluated as having high risk of bias. The risk of bias for 19 studies that analyzed prevalence of TB among DM patients ranged from 0 to 4. Accordingly, 3 (15.8%) studies were assessed to have low risk of bias, 8 (42.1%) studies were evaluated as having moderate risk of bias and 8 (42.1%) studies were assessed to have high risk of bias (-S1 Table. Assessment of risk of bias of the studies).
Prevalence of DM among TB patients
Out of the total 94 studies, 78 studies reported DM prevalence among TB patients. Except one study, all reported the total number of observed DM cases among enrolled TB patients. Accordingly, the prevalence of DM among TB patients ranged from 1.9% in Cotonou-Benin to 45% in Ebeye-Marshall Islands [68,103]. This amounted to an overall global median DM prevalence of 16% (IQR 9.0–25.3%). Among the 78 studies, 48 (61.5%) studies were conducted in countries of Asia and showed prevalence rates ranging from 5.1% in Saluru-South India to 44% in Kerala-India [14, 18]. The overall median prevalence of DM among TB patients in Asia was calculated to be 17% (IQR 11.4%-25.8%). Thirteen (16.7%) studies conducted in countries of Africa showed prevalence rates ranging from 1.9% in Cotonou-Benin to 16.7% in Tanzania [68, 70]. This resulted in an overall median prevalence of 6.7% (IQR 4.1%-10.4%) in the studied countries of Africa. Eight (10.3%) studies that were done in countries of North America showed a prevalence rates ranging from 11.4% in Georgia  to 39.0% in South Texas . The median prevalence in North America was 23.6% (IQR 17.3%-35.4%). There were five (6.4%) studies from Oceania that showed prevalence rates ranging from 12% in Fiji  to 45% in Ebeye-Marshall Islands  and the overall median prevalence in this area was 23.2% (IQR 12.8%-39.0%). Three (3.8%) studies conducted in South America indicated prevalence rates ranging from 6.1% in Brazil to 14% in Guyana [98,101]. This amounted to an overall median prevalence of 11.1% (IQR 6.1%-14.0%). There was only one study from Europe that showed a prevalence rate of 5.9% (Fig 2).
(NB: There is only one study reported in Europe). IQR: Interquartile range (Source of the map: https://www.flickr.com/photos/blatantworld/5052373414#. Accessed March 20/2017).
Of the 78 studies included in this systematic review, only ten (12.8%) studies reported number needed to screen (NNS). The NNS indicates the number of TB patients that must be screened to get a single case of DM. The NNS ranged from four cases in Kerala India  to 56 in SriLanka . Only 42 (53.8%) studies described the number of new DM patients obtained by screening TB patients. The number of new DM cases obtained after screening ranged from one case in Cotonou-Benin  to 402 cases in India  (Table 4).
Prevalence of TB among DM patients
Out of the total 94 studies, 19 studies reported TB prevalence among DM patients. The studies were conducted in11 countries distributed in four geographic regions of the world. The prevalence of TB among DM patients ranged from 0.38% in Taiwan  to 14% in Pakistan , and the overall median prevalence was 4.1% (IQR 1.8%-6.2%). Among the 19 studies, ten (52.6%) were from four countries of the Asian Region and the prevalence ranged from 0.38% in Taiwan  to 14% in Pakistan . This amounted to an overall median TB prevalence of 3.5% (IQR 0.9%-10.5%) among DM patients in the studied countries of Asian Region. Seven (36.8%) prevalence studies were conducted in four countries of the African Region, and the prevalence ranged from 1.3% in Tanzania  to 6.2% in Ethiopia . The overall median TB prevalence among DM patients in the Africa studies was 5.6% (IQR 3.5%-5.8%). There was only one study in North America (Mexico) that showed a prevalence rate of 4.9% . There was also one prevalence study from Europe that showed prevalence rate of 1.82%  (Fig 3). Only two study reported the NNS and NNS reported to screen DM patients to get one TB case ranges 71 DM patients in Mexico to 812 in India  (Table 4).
(NB: North America and Europe each reported only one study). IQR: Interquartile range (Source of the map: http://www.sawyoo.com/postpic/2015/02/what-are-the-7-seven-continents_118851.png. Accessed March 20/2017).
Risk factors for TBDM comorbidity
The risk/associated factors for TBDM comorbidity were heterogeneous. Both sexes, age, family history of DM, pulmonary form of TB (PTB) and positive sputum smear were the most frequently mentioned factors in the majority of the studies. The studies used different measures of association to analyze the factors. Out of the 94 reviewed articles, 11(11.7%) studies applied chi square test. Twenty two (23.4%) studies reported TBDM risk/associated factors using odds ratio, relative risk or hazard ratio. Conversely, 61 (64.9%) studies did not report either associated or risk factors for TBDM coexistence. This might be due to that most of the studies did not have adequate sample size and almost all studies mentioned neither in their objective nor in the limitation part about the risk factors of TBDM comorbidity. The following is a brief thematic description of the associated/ risk factors that were identified in the different studies.
1. Socio-demographic and economic factors.
A number of studies concluded that both males [18, 21, 94] and females [76, 91, 95] were at increased risk for TBDM comorbidity. Men were more likely to develop TBDM comorbidity compared to women . Twenty two studies reported that older age increased the risk of TBDM comorbidity [14–15, 17–19, 23, 25–26, 28, 30, 48, 54, 56, 65–67, 76, 81, 86, 91, 96, 100]. Urban residence and having an education level beyond primary schooling were associated factors for TBDM comorbid conditions [31, 69]. Place of birth, ethnicity, high-income status and sedentary occupation were risk factors associated with TBDM comorbidity [21, 26, 28, 30, 48, 86, 91, 94].
2. Behavioral factors.
Illicit drug use, and sedentary lifestyle were reported as behavioral factors associated with TBDM comorbidity [15, 85]. Cigarette smoking  and being alcohol drinker  were identified as an increased risk factors for TBDM coexistence. Practicing frequent outdoor activity was reported as a low behavioral risk factor for TBDM comorbidity .
3. Clinical factors.
Both lower and higher body mass index (BMI), human immune–deficiency virus (HIV) coinfection, body weight loss and hypertension were reported as associated factors for TBDM comorbidity [15–16, 21, 26, 58, 65, 85]. Both lower and higher BMI were also reported as an increased risk factor for TBDM comorbidity [28, 81]. Pre-existing and long duration of DM [69, 81], poor glycemic control at the time of TB diagnosis , patients with liver cirrhosis  and history of high blood pressure  were identified as an increased risk factor for the development of TBDM comorbidity. DM with both positive  and negative  HIV status- were documented as associated and increased risk factor for TBDM comorbid condition. HIV coinfection and malnutrition were also reported as low risk factor for TBDM comorbidity [72, 95]. HIV coinfection with injection drug use (IDU) or without IDU was reported as low risk factor for TBDM coexistence . TBDM comorbid patients were more likely to be PTB case, smear- positive, to have anti-TB drug resistance, to have cavitary lesions on chest x-ray, and to have high alanine transaminase (ALT) level [10, 25, 28, 30, 48, 54, 56, 88–89, 72, 76, 84, 88, 95, 100]. On the contrary, being an extra pulmonary TB (EPTB) case was reported as a low risk factor for TBDM comorbidity .
4. History of DM, TB illness & TB treatment.
Having family history of DM, history of TB illness and treatment, experiencing more side effect of anti-TB treatment, type of TB treatment category, treatment for previous TB episode and extension of anti-TB treatment durations were reported as increased risk factor for TBDM comorbidity [23, 25–26, 28, 30, 54, 65, 69, 76, 88,95]. Receiving TB treatment after abandonment was also identified as low risk factor for TBDM comorbidity .
5. Other factors.
Contact with TB patient in the family was reported as associated/ increased risk factor for TBDM comorbidity [16, 69, 79]. Being imprisoned was associated with TBDM comorbidity [15, 98]. TBDM comorbid patients may require hospitalization . TBDM patients were more likely to die from TBDM comorbidity . Being kept in certain institutions (prisons shelter, orphanage and psychiatric hospital) were documented as low risk factor for TBDM comorbidity  (Table 5).
This systematic review revealed that the global burden of TBDM comorbidity is high, and is fueled by heterogeneous risk/associated factors. The observed global TBDM comorbidity prevalence in the current systematic review is higher compared to the findings of the previous systematic review conducted in 2010 . This might be related to the increasing number of studies addressing TBDM comorbidity in the last six years. A total of 74 studies have been published since 2011 which showed a threefold increase compared to the number of similar studies conducted before 2010. Contrary to the previous systematic review , where studies from the Africa Regions were not reported, our systematic review showed an increasing number of studies reporting high prevalence of DM among TB patients in some countries of the African Region.
The number of new DM patients identified by screening TB patients varied in the different studies. This variation might be due to differences in the screening methods used and variations in the prevalence of DM in the general population of the respective countries. However, the large proportion of newly identified DM patients suggests the identification of previously undiagnosed DM patients and highlights that screening TB patients for DM in the TB clinic is an important public health intervention .
The observed prevalence of TB among DM patients in this systematic review is low compared to the previous systematic review findings . This might be related to the small number of similar studies conducted, the low sensitivity of diagnostic methods used to detect TB cases and the magnitude of TB prevalence in the studied countries. In addition, the language restriction criteria that we used may have resulted in underreporting bias. Hence, we must be cautious in the interpretation of this finding. The prevalence of TB among DM patients in the studied countries of Asia and the African Regions were high compared to findings of other regions. This may be linked to the fact that countries in these continents are experiencing the fastest increase in DM prevalence along with the high burden of TB and HIV [27, 72].
We analyzed socio-demographic, behavioral, clinical and other factors associated with TBDM comorbidity. Male sex was identified as a risk/associated factor for TBDM comorbidity. Men usually practice smoking cigarettes and alcohol drinking which can predispose them to both diseases conditions . Similarly, being women was found to be risk factor for TBDM comorbidity. The reason may be linked to poor health service utilization, care taking role of women for the sick, and influence of estrogen on cytokine production during TB infection that increases the vulnerability of women to TB and consequently to DM . Old age was reported as associated/risk factor for TBDM comorbidity. The reason may be related to decrease in immune status in older age individuals that make them more susceptible to develop both TB and DM [48, 76, 81]. High-income status was also identified as risk factor for the two comorbid condition [26, 30]. Patients with high-income may spend much time in sedentary lifestyle activities than their counter parts and have better access for diagnostic and medical facilities . Urban residence was reported as associated/risk factor for the development of TBDM comorbid condition [31, 69]. This might be due to the overcrowded living conditions, less physical activity and consumption of a high calorie rich diet among residents in urban areas . In addition, urban residents have better access for the diagnosis of TB and DM.
Behavioral attributes such as tobacco smoking and alcohol drinking are associated with TBDM comorbidity [21, 23, 26]. Cigarette smoking results in inflammation and oxidative stress in body cells and increases the risk of developing DM . In contrast, frequent outdoor activity was identified as protective factor for TBDM comorbidity . This might be linked to the fact that increased physical activity results in increased peripheral insulin sensitivity which leads to more glucose uptake by body muscles .
Our systematic review identified various clinical factors associated with TBDM comorbidity. Patients BMI status was identified as increased as well as low risk factor for TBDM comorbid conditions. Previous studies showed that overweight and obesity were risk factors for DM but were protective against TB disease. However, weight loss due to poorly controlled DM and metabolic decomposition takes away this protection and becomes risk factor for TB [30, 81]. Existing DM was the other risk factor for TBDM coexistence. Long term DM is usually associated with uncontrolled DM and can impair the innate and adaptive immune response necessary to counteract the proliferation of TB [28, 69, 81]. Poor glycemic control and high blood pressure were reported as risk factors for TB among DM patients . In resource poor settings, early diagnosis and adequate glycemic control is difficult and poor glycemic control may predispose DM patients to TB disease. In addition, hyperglycemia may provide a conducive environment for bacterial growth and increased virulence of various organisms [69–70, 79, 81]. The increased risk factor for TBDM related to high blood pressure may be linked to the fact that persons with DM were more likely to develop high blood pressure .
There is contradictory finding regarding the association of HIV with TBDM comorbidity [15, 70, 72, 88]. This might be linked to use of taking cotrimoxazole prophylaxis among HIV positive patients. Cotrimoxazole has been found to cause hypoglycemic effects in some patients . The risk factor related to HIV infection could also be related to use of certain antiretroviral drugs that may predispose HIV infected patients to DM . Having family history of DM was also identified as associated/risk factors for TBDM comorbidity. Family history of DM is a known risk factor for DM .
Contact with known TB patients was considered as risk factor for the development of TB among DM patients [16, 69, 79]. Frequent contact could lead to transmission of TB . Patients with history of imprisonment were more likely to be exposed to TBDM comorbid conditions [15, 98].This might indicate that the acquisition of both diseases during imprisonment period is very high  and might be related to overcrowded and stressful living conditions. It was also reported that TBDM comorbid patients usually become hospitalized . DM patient more likely require hospitalization due to glycemic imbalance as a result of infection that may require taking insulin .
This systematic review has strengths and weaknesses. The comprehensive search strategy applied using multiple electronic databases and the inclusion of a large number of studies covering almost all geographic regions of the world are strengths of the study. Potential limitation of the study could be the exclusion of studies written in other languages except English. However, since our inclusion criteria was very broad and accommodated majority of the studies that assessed the magnitude and associated/risk factors of TBDM comorbidity, the effect of excluding non-English written articles in the generalizability of the study findings would be minimal. We could not be able to report age of study participants due to lack of uniformity in the way it was reported in the reviewed articles. We recommend future studies to address this important variable. One may question why we used prevalence rate to report the findings since all studies reviewed were not cross-sectional studies. However, majority of the articles included in this systematic review reported their findings as prevalence of either TB among DM or DM among TB patients. Some reported as the number of DM or TB patients obtained from screening TB or DM patients. The studies were observational studies and used cross-sectional and descriptive study designs. We thus have used prevalence rate as our effort was to relate it with what the reviewed articles reported. We did not exclude studies based on the level of risk of bias assessment as our main objective was to understand the global picture of the prevalence and associated/risk factors of TBDM comorbidity in a more comprehensive manner. We believe that this may not significantly affect the generalizability of the study as majority of the studies were evaluated as having low-moderate risk of bias. We did not perform metanalysis because of methodological variations observed in the different studies included in our systematic review. The studies varied by type of study design used, methods of DM and TB screening, timing of DM screening and number of enrolled patients.
This systematic review revealed that there is a high burden of DM among TB patients at global level. The highest prevalence of DM among TB patients is observed in the studied countries of Asia, North America and Oceania. On the contrary, the prevalence of TB among DM patients is low globally, but relatively higher in the studied countries of Asia and the African continents. Factors associated with TBDM comorbidity included sex, older age, urban residence, illicit drug use, alcoholism, cigarette smoking, sedentary lifestyle, obesity, HIV coinfection, hypertension, long duration of pre-existing DM, poor glycemic control, being a PTB patient, and family history of DM.
The implementation of the WHO recommended TBDM integrated services is important to address the impact of TBDM comorbidity . However, as implementing such a strategy is resource intensive, countries may benefit by first assessing the magnitude and risk/associated factors of TBDM comorbidity before making decisions to undertake such a big initiative.
S1 Prisma Checklist. This is prisima checklist for the prevalence and associated factors of tuberculosis and diabetes mellitus comorbidity: a systematic review.
We would like to thank the library staff at the University of Oslo (Rikshospitalet branch) for their guidance on how to prepare the template and, searching for articles from different databases.
- Conceptualization: MHW GAB SAY.
- Formal analysis: MHW GAB SAY.
- Investigation: MHW.
- Methodology: MHW GAB SAY.
- Supervision: GAB SAY.
- Validation: MHW SAY.
- Writing – original draft: MHW.
- Writing – review & editing: MHW GAB SAY.
- 1. Syal K, Srinivasan A, Banerjee D. VDR, RXR, coronin-1 and interferon ɤ levels in PBMCs of type-2 diabetes patients: Molecular link between diabetes and tuberculosis. Ind J Clin Biochem. 2015; 30(3):323–328.
- 2. World Health Organization. Global tuberculosis report. 2016. Available at http://apps.who.int/iris/bitstream/10665/250441/1/9789241565394-eng.pdf?ua=1 Accessed Nov.18/2016
- 3. International Diabetes Federation. Diabetes atlas. Seventh edition.2015. Available at: http://www.diabetesatlas.org/resources/2015-atlas.html. Accessed Feburary 03/2016.
- 4. Jeon CY, Murray MB, Baker MA. Managing tuberculosis in patients with diabetes mellitus: why we care and what we know. Expert Rev. Anti Infect. Ther. 2012; 10(8):863–868. pmid:23030325
- 5. Riza AL, Pearson F, Ugarte-Gil C, Alisjahbana B, Van de Vijver S, Panduru NM,et.al. Clinical management of concurrent diabetes and tuberculosis and the implications for patient services. Lancet Diabetes Endocrinol. 2014; 2(9):740–753. pmid:25194887
- 6. World Health Organization. Collaborative framework for care and control of tuberculosis and diabetes. http://whqlibdoc.who.int/publications/201/9789241502252_eng.pdf. Accessed 11 Feb 2013.
- 7. Lin Y, Li L, Mi F, Du J, Dong Y, Li Z, et al. Screening patients with diabetes mellitus for tuberculosis in China. Trop Med Int Health. 2012; 17(10):1302–1308. pmid:22830951
- 8. India diabetes mellitus–tuberculosis study group. Screening patients with diabetes mellitus for tuberculosis in India. Trop Med Int Health. 2013; 18(5):646–654. pmid:23448175
- 9. India Tuberculosis-Diabetes Study Group. Screening patients with tuberculosis for diabetes mellitus in India. Trop Med Int Health.2013; 18(5):636–645. pmid:23458555
- 10. Li L, Lin Y, Mi F, Tan S, Liang B, Guo C, et.al. Screening patients with tuberculosis for diabetes mellitus in China. Trop Med Int Health. 2012; 17(10):1294–1301. pmid:22830945
- 11. Jeon CY, Harries AD, Baker MA, Hart JE, Kapur A, Lönnroth K, et.al. Bi-directional screening for tuberculosis and diabetes: a systematic review. Trop Med Int Health. 2010; 15(2):1300–1314.
- 12. Jeon CY, Murray MB. Diabetes mellitus increases the risk of active tuberculosis: A systematic review of 13 observational studies. PLoS Med. 2008; 5(7):e152. pmid:18630984
- 13. Baker MA, Harries AD, Jeon CY, Hart JE, Kapur A, Lönnroth K, et.al. The impact of diabetes on tuberculosis treatment outcomes: A systematic review. BMC Medicine. 2011; 9:81. pmid:21722362
- 14. Achanta S, Tekumalla RR, Jaju J, Purad C, Chepuri R, Samyukta R, et.al. Screening tuberculosis patients for diabetes in a tribal area South India. Public Health Action. 2013; 3(Suppl 1):S43–S47. pmid:26393069
- 15. Alavi SM, Khoshkhoy MM. Pulmonary tuberculosis and diabetes mellitus: Co-existence of both diseases in patients admitted in a teaching hospital in South West of Iran. Caspian J Intern Med.2012; 3(2):421–424. pmid:24358437
- 16. Alisjahbana B, Crevel RV, Sahiratmadja E, Heijer MD, Maya A, Istriana E, et.al. Diabetes mellitus is strongly associated with tuberculosis in Indonesia. Int J Tuber Lung Dis. 2006; 10(6):696–700.
- 17. Baghaei P,Tabarsi P,Marjani M, Moniri A,Masjedi MR. Screening for diabetes mellitus in tuberculosis patients in a referral center in Iran. Infectious Diseases. 2015; 47:472–476. pmid:25738612
- 18. Balakrishnan S, Vijayan S, Nair S, Subramoniapillai J, Mrithyunjayan S, Wilson N, et.al. High diabetes prevalence among tuberculosis cases in Kerala, India. PLoS ONE. 2012; 7(10):e46502. pmid:23077512
- 19. Dave P, Shah A, Chauhan M, Kumar AMV, Harries AD, Malhotra S, et.al. Screening patients with tuberculosis for diabetes mellitus in Gujarat, India. Public Health Action. 2013; 3(Suppl 1):S29–S33. pmid:26393065
- 20. Jawad F, Shera AS, Memon R, Ansari G. Glucose intolerance in pulmonary tuberculosis. J Park Med Assoc.1995; 45:237–238.
- 21. Lin YH, Chen CP, Chen PY, Huang JC, Ho C, Weng HH, et.al. Screening for pulmonary tuberculosis in type 2 diabetes elderly: a cross- sectional study in a community hospital. BMC Public Health. 2015; 15:3 pmid:25572102
- 22. Pandya L, Al-Sharif N, Maraey A, Al-Majid S, El-Sakka M. Pulmonary tuberculosis in diabetic patients. Ann Saudi Med.1991; 11(3):293–296. pmid:17588106
- 23. Raghuraman S, P KV, Govindarajan S, Chinnakali P, Panigrahi KC. Prevalence of diabetes mellitus among tuberculosis patients in urban Puducherry. North Am J Med Sci. 2014; 6(1):30–34.
- 24. Rajapakshe W, Isaakidis P, Saqili KD, Kumar AMV, Samaraweera S, Pallewatta N,et.al. Screening patients with tuberculosis for diabetes mellitu in Ampara, Sri Lanka. Public Health Action. 2015; 5(2):150–152. pmid:26400388
- 25. Shidam UG, Roy G, Sahu SK, Kumar SV, Ananthanarayanan PH. Screening for diabetes among presumptive tuberculosis patients at a tertiary care centre in Pondicherry, India. Int J Tuberc Lung Dis. 2015; 19(10):1163–1168. pmid:26459527
- 26. Thapa B, Paudel R, Thapa P, Shrestha A, Poudyal AK. Prevalence of diabetes among tuberculosis patients and associated risk factors in Kathmandu valley. SAARC J Tuber Lung Dis HIV/AIDS. 2015; 12(2):20–27.
- 27. Usmani RA, Nasir MI, Wazir S, Pervaiz Z, Zahra T, Akhtar M. Diabetes mellitus among tuberculosis patients in a tertiary care hospital of Lahore. J Ayub Med Coll Abbottabad. 2014; 26(1):61–63. pmid:25358220
- 28. Viswanathan V, Kumpatla S, Aravindalochanan V, Rajan R, Chinnasamy C, Srinivasan R, et.al. Prevalence of diabetes and pre-diabetes and associated risk factors among tuberculosis patients in India. PLoS ONE. 2012; 7(7):e41367. pmid:22848473
- 29. Nagar V, Gour D, Arutagi V, Dave L, Bhatia P, Joshi A, et.al. A study to assess the blood glucose level among diagnosed cases of tuberculosis registered at a tuberculosis unit of Bhopal city, Madhya Pradesh, India. Int J Med Sci Public Health. 2015; 4(2):245–249.
- 30. Wang Q, Ma A, Han X, Zhao S, Cai J, Ma Y, et,al. Prevalence of type 2 diabetes among newly detected pulmonary tuberculosis patients in China: A community based Cohort study. PLoS ONE. 2013; 8(12):e82660. pmid:24367535
- 31. Sarvamangala K, Banerjee A. Comparative study of type II diabetes mellitus and HIV comorbidity among tuberculosis patients attending tertiary care hospital in Davangere. Indian Journal of Public Health Research and Development. 2014; 5(2):193–197.
- 32. Deshmukh PA, Shaw T. Pulmonary tuberculosis and diabetes mellitus. Ind.J.Tubc. 1984; 31(3):114–117.
- 33. Chachra V, Arora VK. Study on prevalence of diabetes mellitus in patients with TB under DOTS strategy. Ind. J. Tuberc. 2014; 61:65–71.
- 34. Wang PD, Lin RS. Epidemiological features of diabetics among tuberculosis patients in Taiwan. J Infect Dis Antimicrob Agents. 2000; 17:101–105.
- 35. Chaudhry LA, Essa EB, Al-Solaiman S, Al-Sindi K. Prevalence of diabetes type-2 & pulmonary tuberculosis among Filipino and treatment outcomes: A surveillance study in the Eastern Saudi-Arabia. International Journal of Mycobacteriology. 2012; 106–109. pmid:26787066
- 36. Duangrithi D, Thanachartwet V, Desakorn V, Jitrucktha P, Phojanamongkolkij K, Rienthong S, et.al. Impact of diabetes mellitus on clinical parameters and treatment outcomes of newly diagnosed pulmonary tuberculosis patients in Thailand. Int J Clin Pract. 2013; 67 (11):1199–1209. pmid:23750554
- 37. Jabbar A, Hussain SF, Khan AA. Clinical characteristics of pulmonary tuberculosis in adult Pakistani patients with co-existing diabetes mellitus. East.Mediterr.health j. 2006; 12(5):523–527.
- 38. Jali MV, Mahishale VK, Hiremath MB, Satyanarayana S, Kumar AMV, Nagaraja SB, et.al. Diabetes mellitus and smoking among tuberculosis patients in a tertiary care centre in Karnataka, India. Public Health Action. 2013; 3(Suppl 1): S51–S53. pmid:26393071
- 39. Magee MJ, Kempker RR, Kipiani M, Gandhi NR, Darchia L, Tukvadze N, et.al. Diabetes mellitus is associated with cavities, smear grade, and multidrug-resistant tuberculosis in Georgia. Int J Tuberc Lung Dis. 2015; 19(6):685–692. pmid:25946360
- 40. Mi F, Tan S, Liang L, Harrie AD, Hinderaker SG, Lin Y,et.al. Diabetes mellitus and tuberculosis: pattern of tuberculosis, two month smear conversion and treatment outcomes in Guangzhou, China. Trop Med Int Health. 2013; 18(11):1379–1385. pmid:24112411
- 41. Mi F, Jiang G, Du J, Li L, Yue W, Harries AD, et.al. Is resistance to anti-tuberculosis drugs associated with type 2 diabetes mellitus? A register review in Beijing, China. Global Health Action. 2014; 7:24022. pmid:24845213
- 42. Pablo-Villamor MP, Benedicto JP, Benedicto MTJU, Perez VM. Screening for diabetes mellitus in patients diagnosed with pulmonary tuberculosis. Philippine Journal of Internal Medicine. 2014; 52(4):1–9.
- 43. Park SW, Shin JW, Kim JY, Park IW, Choi BW, Choi JC, et.al. The effect of diabetic control status on the clinical features of pulmonary tuberculosis. Eur J Clin Microbiol Infect Dis. 2012; 31(7):1305–1310. pmid:22042559
- 44. Roghieh G, Elham G, Rahim RS, Hamid G, Aida M. Diabetes mellitus and pulmonary tuberculosis, association or co- incidence? Pak J Med Sci. 2011; 27(4):819–822.
- 45. Mehta S, Yu EA, Ahamed SF, Bonam W, Kenneth J. Rifampin resistance and diabetes mellitus in a cross-sectional study of adult patients in rural South India. BMC Infect Dis. 2015; 15:451 pmid:26496855
- 46. Shaikh MA, Singla R, Khan NB, Sharif NS, Saigh MO. Does diabetes alter the radiological presentation of pulmonary tuberculosis? Saudi Med J. 2003; 24(3):278–281. pmid:12704504
- 47. Siddiqui AM. Clinical manifestations and outcome of tuberculosis in diabetic patients admitted to King Abdulaziz University Hospital in Jeddah, Saudi-Arabia. J T U Med Sc. 2009; 4(2):148–155.
- 48. Sulaiman SA, Khan AH, Muttalif AR, Hassali MA, Ahmad N, Iqubal MS. Impact of diabetes mellitus on treatment outcomes of tuberculosis patients in tertiary care setup. Am J Med Sci. 2013; 345(4):321–325. pmid:23531965
- 49. Zhang Q, Xiao H, Sugawara I. Tuberculosis complicated by diabetes mellitus at Shanghai pulmonary hospital China. Jpn.J.Infect.Dis. 2009; 62:390–391. pmid:19762992
- 50. Chen HG, Liu M, Jiang SW, Gu FH, Huang SP, Gao TJ, et.al. Impact of diabetes on diagnostic delay for pulmonary tuberculosis in Beijing. Int J Tuberc Lung Dis. 2014; 18(3):267–271. pmid:24670559
- 51. Jali MV, Mahishale VK, Hiremath MB. Bidirectional screening of tuberculosis patients for diabetes mellitus and diabetes patients for tuberculosis. Diabetes Metab J. 2013; 37(4):291–295. pmid:23991408
- 52. Kumpatla S, Sekar A, Achanta S, Sharath BN, Kumar AMV, Harries AD,et.al. Characteristics of patients with diabetes screened for tuberculosis in a tertiary care hospital in South India. Public Health Action. 2013; 3(Suppl 1):S23–S28. pmid:26393064
- 53. Tripathy SR, Kar KP, Chakrborty DC, Majumdar AK. Diabetes mellitus and pulmonary tuberculosis. A prospective study. Ind. J. Tuberc. 1984; 31:122–125.
- 54. Wu Z, Guo J, Huang Y, Cai E, Zhang X, Pan Q,et.al. Diabetes mellitus in patients with pulmonary tuberculosis in an aging population in Shanghai, China: Prevalence, clinical characteristics and outcomes. J Diabetes complications. 2016; 30(2):237–241. pmid:26684166
- 55. Naeem A. Tuberculosis patients; diagnostic significance of fasting blood glucose (AFB). Professional Med J. 2016; 23(1):045–049.
- 56. Nair S, Kumari AK, Subramonianpillai J, Shabna DS, Kumar SM, Balakrishnan S,et.al. High prevalence of undiagnosed diabetes among tuberculosis patients in peripheral health facilities in Kerala. Public Health Action. 2013; 30(Suppl 1):S38–S42.
- 57. Tahir NB, Uddin QT, Munir SS, Waheed A, Waheed S, Daud HM. Prevalence of diabetes mellitus in tuberculosis patients at DOTS regional centre KMU-IMS teaching Hospital Kohat. Eureopean Academic Research. 2014; 2(7):9948–9959.
- 58. Jain KK, Thakuria R, Lokesh S.Prevalence of pulmonary diabetes mellitus in tuberculosis patients attending tertiary care institute. International Medical Journal. 2015; 2(4):245–248.
- 59. Amin S, Khattak MI, Shabbier G, Wazir MN. Frequency of pulmonary tuberculosis in patients with diabetes mellitus. Gomal Journal of Medical Sciences. 2011; 9(2):163–165.
- 60. Prakash BC, Ravish KS, Prabhakar B, Ranganath TS, Naik B, Satyanarayana S, et.al. Tuberculosis-diabetes mellitus bidirectional screening at a tertiary care centre, South India. Public Health Action. 2013; 3(Suppl 1):S18–S22. pmid:26393063
- 61. Qayyum A, Shafiq M, Farogh A. Prevalence of pulmonary tuberculosis among diabetics. Biomedical. 2004; 20:73–68.
- 62. Sangral R, Kumar D, Bhatia AS. Diabetes mellitus among tuberculosis patients in a rural population of Jammu—a community based observational study. JK Science. 2012; 14(4):177–180.
- 63. Alisjahbana B, Sahiratmadja E, Nelwan EJ, Purwa AM, Ahmad Y, Ottenhoff THM, et.al. The Effect of type 2 diabetes mellitus on the presentation and treatment response of pulmonary tuberculosis. Clin Infect Dis. 2007; 45(4):428–435. pmid:17638189
- 64. Kermansaravi F, Metanat M, Sharifi-Mood B. Evaluation of active pulmonary tuberculosis among patients with diabetes. Int J Infect. June. 2014; 1(1):e19632.
- 65. Padmalatha P, Hema K. Study on prevalence of diabetes mellitus in tuberculosis patients attending a tertiary care hospital in Guntur, Andhra Pradesh. Indian Journal of Basic and Applied Medical Research. 2014; 4(1):494–498.
- 66. Kottarath MD, Mavila R, Achuthan V, Nair S. Prevalence of diabetes mellitus in tuberculosis patients-a hospital based study. Int J Res Med Sci. 2015; 3:2810–2814.
- 67. Rao MSS, Shridhar M, Pavani K, V VE, Dass SM. Screening of tuberculosis in diabetic patients at a tertiary care hospital in Hyderabad. Indian J Microbiol Res. 2015; 2(4):220–226.
- 68. Ade S, Affolabi D, Agodokpessi G, Wachinou P, Faihun F, Toundoh N, et.al. Low prevalence of diabetes mellitus in patients with tuberculosis in Cotonou, Benin. Public Health Action. 2015; 5(2):147–149. pmid:26400387
- 69. Amare H, Gelaw A, Anagaw B, Gelaw B. Smear positive pulmonary tuberculosis among diabetic patients at the Dessie referral hospital, Northeast Ethiopia. Infect Dis Poverty. 2013; 2(1):6. pmid:24499664
- 70. Faurholt-Jepsen D, Range N, PrayGod G, Jeremiah K, Faurholt-Jepsen M, Aabye MG, et.al. Diabetes is a risk factor for pulmonary tuberculosis: A case-control study from Mwanza, Tanzania. PLoS ONE. 2011; 6(8):e24215. pmid:21912626
- 71. Haraldsdottir TL, Rudolf F, Bjerregaard-Andersen M, Joaquim LC, Stochholm K, Gomes VF, et.al. Diabetes mellitus prevalence in tuberculosis patients and the background population in Guinea-Bissau: a disease burden study from the capital Bissau. Trans R Soc Trop Med Hyg. 2015; 109(6):400–407. pmid:25918218
- 72. Kibirige D, Ssekitoleko R, Mutebi E, Worodria W. Overt diabetes mellitus among newly diagnosed Ugandan tuberculosis patients: a cross-sectional study. BMC Infect Dis. 2013, 13:122. pmid:23497232
- 73. Mtwangambate G, Kalluvya SE, Kidenya BR, Kabangila R, Downs JA, Smart LA, et.al. Cough-triggered tuberculosis screening among adults with diabetes in Tanzania. Diabet Med. 2014; 31(5):600–605. pmid:24152037
- 74. Ogbera AO, Kapur A, Odeyemi K, Longe-Peters K, Adeyeye OO, Odeniyi I, et.al. Screening for diabetes mellitus and human immunodeficiency virus infection in persons with tuberculosis. J prev med hyg. 2014; 55(2):42–45. pmid:25916018
- 75. Olayinka AO, Anthonia O, Yetunde K. Prevalence of diabetes mellitus in persons with tuberculosis in a tertiary health centre in Lagos Nigeria. Indian J Endocr Metab. 2013; 17(3):486–489.
- 76. Workneh MH, Bjune GA, Yimer SA. Prevalence and associated factors of diabetes mellitus among tuberculosis patients in South- Eastern Amhara Region, Ethiopia: A cross-sectional study. PLoS ONE. 2016; 11(1):e0147621. pmid:26808967
- 77. Feleke Y,Abdulkadir J,Aderaye G. Prevalence and clinical features of tuberculosis in Ethiopian diabetic patients. East Afri Med J.1999; 76(7):361–364.
- 78. Swai ABM, McLarty DG, Mugusi F. Tuberculosis in diabetic patients in Tanzania. Trop Doct. 1990; 20(4):147–150. pmid:2284664
- 79. Webb EA, Hesseling AC, Schaaf HS, Gie RP, Lombard CJ, Spitaels A, et.al. High prevalence of Mycobacterium tuberculosis infection and disease in children and adolescents with type 1 diabetes mellitus. Int J Tuberc Lung Dis. 2009; 13(7):868–874. pmid:19555537
- 80. Kirui NK, Pastakia SD, Kamano JH, Cheng S, Manuthu E, Chege P, et.al. Important co-morbidity in patients with diabetes mellitus in three clinics in Western Kenya. Public Health Action. 2012; 2(4):148–151. pmid:26392975
- 81. Tiroro S. The magnitude and associated factors of tuberculosis among diabetic patients at Tikur Anbessa specialized teaching hospital in Addis Ababa,Ethiopia.2015. MPH thesis. Addis Ababa University. Avaialble at http://etd.aau.edu.et/bitstream/123456789/7590/1/Sisay%20Tiroro.pdf. Accessed March 25/2016.
- 82. Ogbera AO, Kapur A, Abdur-Razzaq H, Harries AD, Ramaiya K, Adeleye O,et.al. Clinical profile of diabetes mellitus in tuberculosis. BMJ Open Diabetes Research Care. 2015; 3(1):e000112. pmid:26336610
- 83. Getachew A, Mekonnen S, Alemu S, Yusuf H. High magnitude of diabetes mellitus among active pulmonary tuberculosis patients in Ethiopia. British Journal of Medicine & Medical Research. 2014; 4(3):862–872.
- 84. Damtew E, Ali I, Meressa D. Prevalence of diabetes mellitus among active pulmonary tuberculosis patients at St. Peter Specialized hospital, Addis Ababa, Ethiopia. World J. Med. Sci. 2014; 11:389–396.
- 85. Baldé MN, Camara A, Camara LM, Diallo MM, Kaké A, Bah-Sow OY. Associated tuberculosis and diabetes in Conakry, Guinea: prevalence and clinical characteristics. Int J Tuberc Lung Dis. 2006; 10(9):1036–1040. pmid:16964797
- 86. Rakotonirina J, Razanakoto H, Rasolofomanana L, Razanakolona LRS. HIV prevalence and diabetes prevalence among tuberculosis patients in Antananarivo city: a descriptive study. Int J Res Med Sci. 2014; 2(3):834–837
- 87. Mugusi F, Swai ABM, Alberti KGMM, McLarty DG. Increased prevalence of diabetes mellitus in patients with pulmonary tuberculosis in Tanzania. Tubercle. 1990; 71:271–276. pmid:2267680
- 88. Moreno-Mart´ınez A, Casals M, Orcau A, Gorrindo P, Masdeu E, Cayla JA, et.al. Factors associated with diabetes mellitus among adults with tuberculosis in a large European city, 2000–2013. Int J Tuberc Lung Dis. 2015; 19(12):1507–1512. pmid:26614193
- 89. Warwick MT. Pulmonary tuberculosis and diabetes mellitus. Journal of Medicine. 1957; 16(101):31–42.
- 90. Ponce-De-Leon A, Garcia-Garcia MdeL, Garcia-Sancho MC, Gomez-Perez FJ, Valdespino-Gomez JL, Olaiz-Fernandez G.et.al. Tuberculosis and diabetes in Southern-Mexico. Diabetes Care. 2004; 27(7):1584–1590. pmid:15220232
- 91. Restrepo BI, Fischer–Hoch SP, Crespo JG, Whiteny E, Perez A, Smith B,et.al. Type 2 diabetes and tuberculosis in a dynamic bi-national border population. Epidemiol. Infect. 2007; 135(3):483–491. pmid:16863600
- 92. Restrepo BI, Camerlin AJ, Rahbar MH, Wang W, Restrepo MA, Zarate I,et.al. Cross-sectional assessment reveals high diabetes prevalence among newly-diagnosed tuberculosis cases. Bull World Health Organ. 2011; 89(5):352–359. pmid:21556303
- 93. Magee MJ, Foote M, Maggio DM, Howards PP, Narayan KM, Blumberg HM, et.al. Diabetes mellitus and risk of all-cause mortality among patients with tuberculosis in the state of Georgia, 2009–2012. Ann Epidemiol. 2014; 24(5):369–375. pmid:24613196
- 94. Suwanpimolkul G, Grinsdale JA, Jarlsberg LG, Higashi J, Osmond DH, Hopewell PC.et.al. Association between diabetes mellitus and tuberculosis in United States-born and foreign-born populations in San Francisco. PLoS ONE. 2014; 9(12): e114442. pmid:25478954
- 95. Delgado-Sánchez G, García-García L, Castellanos-Joya M, Cruz-Hervert P, Ferreyra-Reyes L, Ferreira-Guerrero E, et.al Association of pulmonary tuberculosis and diabetes in Mexico: Analysis of the national tuberculosis registry 2000–2012. PLoS ONE. 2015; 10(6): e0129312. pmid:26075393
- 96. Castellanos-Joya M, Delgado-Sa´nchez G, Ferreyra-Reyes L, Cruz-Hervert P, Ferreira-Guerrero E, Oritz-Solis G, et.al. Results of the implementation of a pilot model for the bidirectional screening and joint management of patients with pulmonary tuberculosis and diabetes mellitus in Mexico. PLoS ONE. 2014; 9(9):e106961. pmid:25229236
- 97. Jiménez-Corona ME, Cruz-Hervert LP, García-García L, Ferreyra-Reyes L, Delgado-Sánchez G, Bobadilla-del-Valle M, et.al. Association of diabetes and tuberculosis: impact on treatment and post-treatment outcomes. Thorax. 2013; 68:214–220. pmid:23250998
- 98. Alladin B, Mack S, Singh A, Singh C, Smith B, Cummings E, et.al. Tuberculosis and diabetes in Guyana. International Journal of Infectious Diseases. 2011; 15:e818–e821. pmid:21907605
- 99. Magee MJ, Bloss E, Shin SS, Contreras C, Huaman HA, Ticona JC, et.al. Clinical characteristics, drug resistance, and treatment outcomes among tuberculosis patients with diabetes in Peru. International Journal of Infectious Diseases. 2013; 17:e404–e412. pmid:23434400
- 100. Reis-Santos B, Locatelli R, Horta BL, Faerstein E, Sanchez MN, Riley LW. et.al. Socio-Demographic and clinical differences in subjects with tuberculosis with and without diabetes mellitus in Brazil–A Multivariate Analysis. PLoS ONE. 2013; 8(4):e62604. pmid:23638123
- 101. Bridson T, Matthiesson A, Owens L, Govan B, Norton R, Ketheesan N. Diabetes: A contributor to tuberculosis in tropical Australia. Am. J. Trop. Med. Hyg. 2015; 93(3):547–548. pmid:26055738
- 102. Viney K, Cavanaugh J, Kienene T, Harley D, Kell PM, Sleigh A,et.al. Tuberculosis and diabetes mellitus in the Republic of Kiribati: a case–control study. Trop Med Int Health. 2015; 20(5):650–657. pmid:25598275
- 103. Nasa JN, Brostrom R, Ram S, Kumar AMV, Seremai J, Hauma M, et.al. Screening adult tuberculosis patients for diabetes mellitus in Ebeye, Republic of the Marshall Islands. Public Health Action. 2014; 4(Suppl 1):S50–S52. pmid:26477288
- 104. Prasad P, Gounder S, Varman S, Viney K. Sputum smear conversion and treatment outcomes for tuberculosis patients with and without diabetes in Fiji. Public Health Action. 2014; 4(3):159–163. pmid:26400803
- 105. Gounder S, Harries AD. Screening tuberculosis patients for diabetes mellitus in Fiji: notes from the field. Public Health Action. 2012; 2(4):145–147. pmid:26392974
- 106. Kalra S, Kalra B, Agrawal N, Unnikrishnan AG. Understanding diabetes in patients with HIV/AIDS. Diabetol Metab Syndr. 2011; 3: 2. pmid:21232158