Literature DB >> 35173417

Evaluation of Mobile Application for the Management of Tuberculosis Patients in Tianjin During 2019-2020.

Xiaorong Li1, Xuewen Pang1, Fan Zhang1.   

Abstract

PURPOSE: Poor tuberculosis (TB) medication adherence increases the risk of treatment failure and development of drug-resistant TB, while universal implementation of directly observed therapy (DOT) is not feasible in China. EHealth technologies were reported to be promising patient-centered tools for improving adherence. However, only pilot studies have assessed patients' experiences, and the results were discrepant. PATIENTS AND METHODS: This prospective-cohort study was conducted among TB patients at the outpatient department from 3 March 2019 to 30 May 2020 in Tianjin, China. Data were downloaded from the Tuberculosis Doctor App and TB Information Management System (TBIMS) and merged them by the TBIMS notification number. Logistic regression analysis was used to analyze the factors associated with regular drug-intake. Odds ratios and 95% confidence intervals were estimated with and without adjustment for age, gender, ethnicity and occupation.
RESULTS: Revisit examination was more regularly and frequently in APP group than non-APP group. In APP group, 33.28% patients were regular drug-intake. The whole drug-intake rate was 84.84%. Tuberculosis pleurisy (aOR: 0.42, 95CI%=0.26-0.69) and retreated patients (aOR: 0.40, 95CI% =0.27-0.59) were more likely to have poor medication compliance. Local residents tend to have better medication compliance (aOR: 1.80, 95CI% =1.16-2.79).
CONCLUSION: APP could improve TB patients' revisit examination adherence. Medication adherence was poor in tuberculosis pleuritis and retreated patients, while local residents tend to have better medication adherence. To make full use of the mobile application in TB patient management, more incentive measures should be adopted for patients and doctors, respectively.
© 2022 Li et al.

Entities:  

Keywords:  medication adherence; mobile application; tuberculosis

Year:  2022        PMID: 35173417      PMCID: PMC8841537          DOI: 10.2147/PPA.S321289

Source DB:  PubMed          Journal:  Patient Prefer Adherence        ISSN: 1177-889X            Impact factor:   2.711


Introduction

Tuberculosis is a global public health problem. According to the estimates of World Health Organization (WHO), there were 9.96 million new cases of TB globally in 2019, with an incidence of 130/100,000 and 1.21 million deaths due to TB.1 China ranks the third in terms of TB burden in the world, accounting for 8.4% of the estimated new cases and 14% of multiple drug resistant tuberculosis (MDR-TB) patients. The occurrence of MDR-TB is closely related to the patient’s treatment adherence. Treatment adherence refers to the degree to which the patient’s treatment-related behaviors (such as taking medication, regular review, et al) are consistent with the doctor’s prescription.2 Poor treatment adherence will lead to prolonged disease, recurrence, aggravation, and even the extensive spread of MDR-TB bacilli.3 This problem has become one of the obstacles to the control of the global TB epidemic.4 Therefore, improving adherence is still one of the effective public health measures to reduce the spread of TB and control the epidemic.5 Directly observed therapy (DOT) by health-care workers has been proven to ensure TB patients’ medication adherence.6 However, due to the high cost of healthcare, level of economic development, availability of transportation, medical resources and privacy issues, it is difficult for many developing countries to fully implement DOT.7 The DOT Short-course strategy was implemented in 1992 in China and covered the entire country by 2005,8 only 20% TB patients were supervised by health-care workers, others were on self-administered treatment or by family members.7,9 Studies showed that a lack of DOT, adverse effects,10 financial burdens often led to medication nonadherence in China.11,12 It was reported that more than 25% of TB patients missed at least one dose of anti-TB drugs,9,13 which was higher than the WHO recommendation of less than 10%.14 Thus, in the 2017 WHO’s TB treatment guidelines, eHealth technology was suggested to be applied in the management of TB patients.15 As a new mobile communication and network technology in the healthcare industry, eHealth technology not only could provide humanized, convenient and high-quality services for patients, but also improve the quality and efficiency of medical service.16–18 Short messaging service (SMS), video supervision, wirelessly observed therapy (WOT) and mobile application (APP) were reported to be applied in TB patients’ management,19–21 although those measures contributed to improved compliance compared to DOT, no eHealth technology was widely promoted.22–25 APP supervision has shown its potential application due to its low cost, convenience and high acceptance. However, at present, only a small range of pilot studies have reported the effect of APP in the management of TB patients.26 In Tianjin, after early pilot applications and continuous improvement during 2015–2018, APP has been promoted and used in all districts since March 2019. To evaluate the effect of APP, we analyzed the data of TB patients who have completed the course of treatment in Tianjin, China.

Materials and Methods

Study Design

This is a prospective cohort study. The APP was applied in all districts since March 2019. After diagnosis, the patients were instructed to install the TB assistant APP by health-care doctors of the community where they currently live. The TB assistant APP could remind the patient to take medicine and visit the hospital according to the set time. On the day of taking medicine, the information of taking medicine was uploaded when the patient signs in the TB assistant App. The APP will automatically send medication reminders to patients who did not sign-in at 10 AM and 3 PM respectively. Sign in was equivalent to taking medicine. During the study, if the patients lost to follow-up, refused treatment, died, ruled out of TB, default due to adverse reactions, their data would be treated as invalid. The doctor visited each patient within 72 hours after diagnosis, and contacted them at least once a month. The doctor evaluated the drug adherence, given advice about timely and regular drug intake. If a patient failed to sign in the App, the doctor should remind him/her through the TB doctor App; if a patient did not visit the hospital 3 days after the scheduled time, the doctor was required to call or visit patient to supervise him/her to visit the designated medical institution within 24 h.

Study Population

The study population comprises a consecutive enrolled pulmonary TB patients diagnosed at clinic. Inclusion criteria were as follows: 1) ≥18 years old; 2) Patients with no communication impairment (mental, visual, auditory, or speech); 3) Patients or family members agreed to download and use App after training: 4) Patients were able to persist in receiving treatment in Tianjin. In order to evaluate the review status, 2386 frequency matched (by age and gender) controls who refused to download APP were included as non-APP group. All TB patients were given a standard 6–8 months short-course chemotherapy and managed as outpatients. The chemotherapy regimens include isoniazid, rifampin, ethambutol, and pyrazinamide for 2 mo, followed by isoniazid and rifampin for 4 or 6 mo; The therapy used every day dosing for the entire treatment course. At each monthly visit, patients went to hospital to get enough medications for a 1-mo period. DOT at a health-care facility often meant that a patient had to give up part of their working day to attend,27 it is difficult and unrealistic for most TB patients especially those who need to commute to work on time. So in Tianjin, DOT was conducted only in a minority of TB patients in rural areas, most TB patients taken medicine supervised by health-care doctors or self-administered treatment or supervised by family members. APP could serve as a reminder to overcome forgetfulness, especially those that are sent daily at set time, which could result into forming a habit of medication adherence by reminding patients to take their medicine. Health-care doctors could keep an eye on patients’ daily medication and regular follow-up through the APP at any time. This study was conducted in accordance with the Declaration of Helsinki.

Introduction of APP

App was developed by Beijing SINOVO POWER Technology Co., Ltd. and Beijing Chest Hospital. It consists of two parts: Tuberculosis Assistant App and Tuberculosis Doctor App. Tuberculosis Assistant App is available for TB patients, which could provide reminders of drug taking and review, Q&A consultation, patient forum and communication with doctors. Tuberculosis Doctor App is the terminal of management doctor, including the mobile APP and the web system. Doctors can view medication feedback, respond to patients’ questions, communicate with patients instantly, send messages and irregularly push health information, etc.

Data Collection

Data was downloaded from the Tuberculosis doctor App and TB Information Management System (TBIMS). Observation indicators: (1) drug-intake rate: the drug-intake rate of patients in different treatment months was calculated. The calculation formula was as follows: the monthly drug-intake rate = the actual times of drug-intake in the month/the times should be taken in the month × 100%; the whole drug-intake rate = the actual times of drug-intake during the whole course/the times should be taken during the whole course × 100%; (2) Determination of regular drug-intake: The whole drug-intake rate ≥90% was determined as regular drug-intake, otherwise as irregular drug-intake. (3) According to the diagnosis for pulmonary tuberculosis (WS 288-2017), TB patients must complete regular sputum smear/culture during treatment, and chest radiograph as reference, thus treatment adherence was defined as regularity of follow-up reexamination (sputum smear/culture at the end of the 2, 5, and 6/8 month, chest radiograph at the end of the 2 and 6/8 month as reference), thus the accumulate times of sputum smear, sputum culture above 3 times were regard as treatment adherence. Case finding was classified as active treatment; while referral, follow-up, health examination and contact examination were classified as passive treatment.

Statistical Analysis

All analyses were performed using SPSS software (version 16.0; SPSS Inc., Chicago, IL, USA). Normality test was performed first for continuous variables, data that were not conforming to the normal distribution were presented as median (quartile), and non-parametric Kruskal–Wallis test was performed. Categorical data were evaluated by Chi-square test as appropriate. Univariate and multivariate logistic regression analysis was used to analyze the association between factors and regular drug-intake. All tests were two-sided and P < 0.05 was considered statistically significant.

Results

Patient Characteristics

From 3 March 2019 to 30 May 2020, a total 1284 pulmonary TB patients were informed and agreed to download Tuberculosis Assistant App to finish their whole course of anti-tuberculosis treatment. Of those, 91 patients were excluded: 36 patients were loss follow-up, 23 patients subsequently refused to use the APP, 21 patients moved away, 6 patients were ruled out of TB and 5 patients died of other disease. Finally 1193 (92.91%) patients met the enrollment criteria. Among the 1193 study patients, 799 (66.97%) were males and 394 (33.03%) were females. The median age was 48 years old, the minimum age was 14 years old and the maximum was 95 years old. Three hundred and eighteen (26.66%) patients were student and employee, 1052 (88.18%) were local residents, 861 (72.17%) were active case finding, 757(63.45%) were diagnosed as negative and 349(29.25%) were positive, 1070(89.69%) were new TB patients. The basic characteristics were comparable between the APP group and non-APP group (Table 1).
Table 1

Characteristics of APP Group and Non-APP Group

VariablesApp (n=1193)Non-APP (n=2386)Chi-SquareP
Gender0.720.40
 Male799(66.97%)1564(65.55%)
 Female394(33.03%)822(34.45%)
Age*46.59±19.3547.70±19.681.030.51
Case finding0.830.53
 Active861(72.17%)1703(71.37%)
 Passive332(27.83%)683(28.63%)
Diagnosis3.210.20
 Negative@757(63.45%)1501(62.91%)
 Positive#349(29.25%)670(28.08%)
 Pleuritis&87(7.29%)215(9.01%)
Therapy category1.040.31
 New patients1070(89.69%)2113(88.56%)
 Retreated patients123(10.31%)273(11.44%)

Notes: *Age is presented as mean± SD; @negative: the results of etiological examination of sputum was negative; #positive: the results of etiological examination of sputum was positive; &pleuritic: the results of bacteriological examination of pleural fluid was positive.

Characteristics of APP Group and Non-APP Group Notes: *Age is presented as mean± SD; @negative: the results of etiological examination of sputum was negative; #positive: the results of etiological examination of sputum was positive; &pleuritic: the results of bacteriological examination of pleural fluid was positive.

Comparison of Review Adherence

In App group, the proportion of sputum smear in the 2, 5, 6 and 8 months were higher (P < 0.01, respectively). Sputum culture in the 0, 2, 5, 6 and 8 month was more common (P < 0.05, respectively). App group were more likely to have X ray in the 1, 3, 5 and 6 months (P < 0.05) (Table 2). The proportion of the accumulate times above 3 of sputum smear, sputum culture and X ray were more common in App group (P<0.05) (Table 3).
Table 2

Comparison of the Follow-Up Reexamination in Different Month

MonthsApp (n#=1193)Non-APP (n#=2386)Chi-SquareP
Sputum smear month
 0 month1176 (98.58%)2347(98.37%)0.230.64
 2nd month1154(96.73%)1949(81.68%)156.15<0.0001
 5th month1120(93.88%)1516(63.54%)377.36<0.0001
 6th month1047(87.86%)1271(53.27%)414.67<0.0001
 8th month163(13.66%)178(7.46%)35.50<0.0001
Sputum culture month
 01102(92.37%)2064(86.50%)26.82<0.0001
 2nd month196(16.43%)311(13.03%)7.540.006
 5th month88(7.38%)99(4.15%)16.73<0.0001
 6th month111(9.30%)90(3.77%)45.92<0.0001
 8th month10(0.84%)8(0.34%)4.020.045
X ray month
 01192(99.92%)2384(99.92%)01
 1st month38(3.19%)36(1.51%)11.040.0009
 2nd month169(14.17%)390(16.35%)2.870.09
 3th month38(3.19%)35(1.47%)11.750.0006
 4th month40(3.35%)55(2.31%)3.380.07
 5th month39(3.27%)48(2.01%)5.300.02
 6th month155(12.99%)228(9.56%)9.830.002
 7th month9(0.75%)14(0.59%)0.350.55
 8th month17(1.42%)31(1.30%)0.100.76

Note: #n means the number of patients who had sputum smear/ sputum culture/x-rays at different month.

Table 3

Comparison of the Accumulate Times of Reexamination

Number of ReexaminationApp (n@=1193)Non-APP (n@=2386)Chi-SquareP
Sputum smear319.19<0.0001
 <3 times57(4.78%)744(31.18%)
 ≥3 times1136(95.22%)1642(68.82%)
Sputum culture38.14<0.0001
 <3 times1057(88.60%)2252(94.38%)
 ≥3 times136(11.40%)134(5.62%)
X ray4.830.03
 <3 times1032(86.50%)2124(89.02%)
 ≥3 times161(13.50%)262(10.98%)

Note: @n means the number of patients who had smear/culture/x-rays with different times.

Comparison of the Follow-Up Reexamination in Different Month Note: #n means the number of patients who had sputum smear/ sputum culture/x-rays at different month. Comparison of the Accumulate Times of Reexamination Note: @n means the number of patients who had smear/culture/x-rays with different times.

Results of Drug-Intake Rate

Three hundred and ninety-seven (33.28%) patients were regular drug-intake. The times that all patients should take medicine were 238,815, while the actual times recorded by APP were 202,602, the whole drug-intake rate was 84.84%. The drug-intake rate at the first month was 51.84%, and the drug-intake rate decreased with the month, this decreasing trend was significant (P <0.01).

Comparison of Patient Characteristics

The demographic characteristics of TB patients are presented in Table 4. The proportion of 50 years old and above, migrants, new patients, and negative patients in irregular drug-intake group were all higher than those in the regular drug-intake group, the differences were statistically significant (P < 0.05).
Table 4

Characteristics of APP Group

CharacteristicIrregular Drug-IntakeRegular Drug-IntakeChi-SquareP
Gender1.420.24
 Male524(65.83%)275(69.27%)
 Female272(34.17%)122(30.73%)
Age4.390.04
 <50452(56.78%)200(50.38%)
 ≥50344(43.22%)197(49.62%)
Ethnicity0.500.48
 Han784(98.49%)393(98.99%)
 Others12(1.51%)4(1.01%)
Occupation5.040.17
 Student and employee220(27.64%)98(24.69%)
 Farmers191(23.99%)86(21.66%)
 Retired90(11.31%)61(15.37%)
 Unemployed295(37.06%)152(38.29%)
Residence10.370.001
 Migrants111(13.94%)30(7.56%)
 Local685(86.06%)367(92.44%)
Case finding3.420.06
 Active561(70.48%)300(75.57%)
 Passive235(29.52%)97(24.43%)
Diagnosis14.720.0006
 Negative252(31.66%)98(24.69%)
 Positive500(62.81%)256(64.48%)
 Pleuritis44(5.53%)43(10.83%)
Therapy category26.53<0.0001
 New patients740(92.96%)331(83.38%)
 Retreated patients56(7.04%)66(16.62%)
Characteristics of APP Group

Factors Associated with Irregular Drug-Intake

As shown in Table 5, univariate logistic regression analysis showed that 50 years old and above were more likely to have poor adherence (OR: 0.77, 95CI%=0.61-0.98). Retired TB patients demonstrated poor adherence (OR: 0.66, 95CI%=0.44–0.98). Compared with negative and positive TB patients, tuberculosis pleuritis were more likely to have poor adherence (OR: 0.40, 95CI%=0.25–0.64). Retreated patients have poor medication compliance (OR: 0.38, 95CI%=0.26–0.56). While local resident were related to good medication compliance (OR: 1.98, 95CI%=1.30–3.03). After adjustment by age, gender, ethnicity and occupation, tuberculosis pleuritis (aOR: 0.42, 95CI%=0.26–0.69) and retreated patients (aOR: 0.40, 95CI% =0.27–0.59) were more likely to have poor medication compliance. Local resident tends to have better medication compliance (aOR: 1.80, 95CI% =1.16–2.79).
Table 5

Factors Associated with Regular Drug-Intake for Pulmonary TB Patients

VariablesUnadjusted ORAdjusted OR
OR#(95% CI)P-valueaOR*(95% CI)P-value
Gender
 Male1.001.00
 Female0.17(0.90–1.52)0.231.10(0.84–1.42)0.53
Age
 <501.001.00
 ≥500.77(0.61–0.98)0.040.92(0.71–1.20)0.55
Ethnicity
 Han1.001.00
 Others0.66(0.21–2.08)0.480.69(0.22–2.23)0.54
Occupation
 Student and employee1.001.00
 Farmers0.99(0.70–1.40)0.241.05(0.71–1.53)0.49
 Retired0.66(0.44–0.98)0.040.82(0.51–1.31)0.27
 Unemployed0.87(0.64–1.18)0.981.01(0.72–1.41)0.67
Residence
 Migrants1.001.00
 Local1.98(1.30–3.03)0.0021.80(1.16–2.79)0.009
Diagnosis
 Negative1.001.00
 Positive0.76(0.58–1.00)0.200.81(0.61–1.08)0.12
 Pleuritis0.40(0.25–0.64)0.00050.42(0.26–0.69)0.0009
Therapy category
 New patients1.001.00
 Retreated patients0.38(0.26–0.56)<0.00010.40(0.27–0.59)<0.0001
Case finding
 Active1.001.00
 Passive1.30(0.98–1.71)0.061.14(0.85–1.53)0.37

Abbreviations: #OR, odds ratio; 95% CI, 95% confidence interval; *aOR, adjusted OR, odds ratio after adjustment by age, gender, ethnicity and occupation.

Factors Associated with Regular Drug-Intake for Pulmonary TB Patients Abbreviations: #OR, odds ratio; 95% CI, 95% confidence interval; *aOR, adjusted OR, odds ratio after adjustment by age, gender, ethnicity and occupation.

Discussion

Effective management is the key to the success chemotherapy after the patient have been given an appropriate treatment plan. Although DOT has achieved great success in past decades, it was reported that in some areas the implementation rate of DOT was only 50% and 20% TB patients were self-administered therapy without any adherence support.7 Therefore, how to make full use of high-tech methods to achieve accurate management of TB patients is important to improve the level of TB prevention and treatment. At present, mobile medical APPs were applied in the management of chronic disease. Due to its relatively low cost and simple operation, APP was accessible and affordable even in resource-limited areas. However, its effect on improving the medication adherence of TB patients was discrepant currently.5,15,28,29 Community doctors were required to remind patients to return to hospital at least once a month. In this study, the sputum examination and X ray in APP group were more regularly and frequently than non-APP group. Currently the mobile phone has become a necessary article for daily use, it’s both convenient and efficient for medical personnel to remind patients to take medicine and review on time through APP. In addition, mobile phone APP enables community doctors to timely know the treatment of patients and respond accordingly,30 which also promotes patients’ medication and review adherence. The whole drug-intake rate in our study was 84.84% (202602/238815), and only 33.28% (397) patients were regular drug-intake. The drug-intake rate decreased with the month. At the first month, the drug-intake rate was the lowest of the whole therapy course; some patients often forgot to sign in on the APP after taking medicine. To improve the compliance of TB patients, 1 rmb/day was given to patients in some districts since Aug 2019, the drug-intake rate of those TB patients who diagnosed after Aug 2019 was 98.32% at the first month, so the whole rate was underestimated. The drug-intake rate at the twice and third month increased compared with the drug-intake rate at the first month. However, from the fourth month, the drug-intake rate decreased. As to the possible reasons, on the one hand, after three months of standardized treatment, some patients stopped to take medicine when they felt relief of symptoms. On the other hand, doctors chosen to ignore the reminders of missing medication on the APP because of lacking sufficient financial incentives.31 In Tianjin, although according to the government strategy, a doctor can get 7 rmb/day for supervising a patient to take medicine, however, for various reasons, the doctor actually got less than half of the money, or even none. Hence, improving the financial support of doctors and TB patients were beneficial for improving adherence. Tuberculosis pleurisy patients tend to have poor medication adherence. Because tuberculosis is a respiratory infectious disease, the TB patients generally carry a psychological burden of being discriminated and lack of confidence in curing the disease.32 The attitudes of family members and friends were reported to influence the medication adherence.33 Patients with frequent supervision and mentally encouragement by family members, especially from spouses, were more likely to have better adherence.34 Compared with active TB, the therapy course of tuberculosis pleurisy was as long as 12 months, thus tuberculosis pleurisy patients often own more psychological burden, less social support and, therefore, poor medication adherence. Retreated TB patients were showed to have poor adherence. Similar finding was reported in Wang et al study.35 Due to the long course of treatment, generally 6 to 12 months, some even as long as 18 months, and the adverse drug effects were more serious than those of new patients, retreated TB patients often had negative psychology and less confidence. Our study noted that local residents were more likely to have better treatment adherence than migrants. Although free anti-tuberculosis drugs were provided by government, TB patients still need to pay extra fees for medical examinations and liver protection drugs.34 It was reported that treatment was sometimes interrupted due to financial burden of these additional cost. The reimbursement rate of medical insurance in China only refers to the policy reimbursement rate, and the actual reimbursement rate of patients is far lower than the policy rate. According to the investigations, the reimbursement rate of TB outpatient treatment in Tianjin was higher than the national average;36 in addition, migrants tended to have low income and low awareness of TB, they often stopped taking medicines once the symptoms improved. So more financial support was needed for the migrants to promote them to finish the therapy course.

Limitations

There were several limitations that need to be addressed. Firstly, since this study only included TB patients in Tianjin, due to the lack of multi-center data comparison, the extrapolation of the results were limited, but it can provide reliable scientific basis for the further development of community management strategies for TB patients in Tianjin. Secondly, due to some patients’ failing to sign-in on APP after taking medicine, the data uploaded cannot truly reflect the patient’s actual medication status. However, published data indicated that the sensitivity and specificity of 24h medication monitor records as the evidence of TB drug adherence were respectively 99.52% and 95.45%, there is a high correlation between medication monitors’ records and rifampicin detected in urine,20 hence the records of APP were representative to some extent.

Conclusions

In this study, follow-up reexamination was more regularly and frequently in APP group than non-APP group. In APP group, medication adherence was poor in tuberculosis pleurisy and retreated patients, while local resident have better medication adherence. Non-adherence data should be noticed by doctors to provide more intensive supervision. In addition, financial support should be increased to improve the enthusiasm of doctors, so as to ensure the patients’ adherence to complete the course of treatment.
  26 in total

Review 1.  Implementation and community involvement in DOTS strategy: a systematic review of studies in China.

Authors:  W-L Hou; F-J Song; N-X Zhang; X-X Dong; S-Y Cao; X-X Yin; J-N Liu; Z-X Lu
Journal:  Int J Tuberc Lung Dis       Date:  2012-11       Impact factor: 2.373

Review 2.  Mobile health to improve tuberculosis care and control: a call worth making.

Authors:  C M Denkinger; J Grenier; A K Stratis; A Akkihal; N Pant-Pai; M Pai
Journal:  Int J Tuberc Lung Dis       Date:  2013-03-25       Impact factor: 2.373

3.  Video Directly Observed Therapy to support adherence with treatment for tuberculosis in Vietnam: A prospective cohort study.

Authors:  Thu Anh Nguyen; Minh Tam Pham; Thi Loi Nguyen; Viet Nhung Nguyen; Duc Cuong Pham; Binh Hoa Nguyen; Greg James Fox
Journal:  Int J Infect Dis       Date:  2017-10-10       Impact factor: 3.623

4.  Electronic monitoring of treatment adherence and validation of alternative adherence measures in tuberculosis patients: a pilot study.

Authors:  Jossy van den Boogaard; Ramsey A Lyimo; Martin J Boeree; Gibson S Kibiki; Rob E Aarnoutse
Journal:  Bull World Health Organ       Date:  2011-05-20       Impact factor: 9.408

5.  Tuberculosis prevalence in China, 1990-2010; a longitudinal analysis of national survey data.

Authors:  Lixia Wang; Hui Zhang; Yunzhou Ruan; Daniel P Chin; Yinyin Xia; Shiming Cheng; Mingting Chen; Yanlin Zhao; Shiwen Jiang; Xin Du; Guangxue He; Jun Li; Shengfen Wang; Wei Chen; Caihong Xu; Fei Huang; Xiaoqiu Liu; Yu Wang
Journal:  Lancet       Date:  2014-03-18       Impact factor: 79.321

6.  Psychological distress and its relationship with non-adherence to TB treatment: a multicentre study.

Authors:  Grant Theron; Jonny Peter; Lynn Zijenah; Duncan Chanda; Chacha Mangu; Petra Clowes; Andrea Rachow; Maia Lesosky; Michael Hoelscher; Alex Pym; Peter Mwaba; Peter Mason; Pamela Naidoo; Anil Pooran; Hojoon Sohn; Madhukar Pai; Dan J Stein; Keertan Dheda
Journal:  BMC Infect Dis       Date:  2015-07-01       Impact factor: 3.090

7.  Does phone messaging improves tuberculosis treatment success? A systematic review and meta-analysis.

Authors:  Kassahun Dessie Gashu; Kassahun Alemu Gelaye; Zeleke Abebaw Mekonnen; Richard Lester; Binyam Tilahun
Journal:  BMC Infect Dis       Date:  2020-01-14       Impact factor: 3.090

8.  Adherence to anti-tuberculosis treatment among pulmonary tuberculosis patients: a qualitative and quantitative study.

Authors:  Weiguo Xu; Wei Lu; Yang Zhou; Limei Zhu; Hongbing Shen; Jianming Wang
Journal:  BMC Health Serv Res       Date:  2009-09-18       Impact factor: 2.655

9.  Are tuberculosis patients adherent to prescribed treatments in China? Results of a prospective cohort study.

Authors:  Xun Lei; Ke Huang; Qin Liu; Yong-Feng Jie; Sheng-Lan Tang
Journal:  Infect Dis Poverty       Date:  2016-05-05       Impact factor: 4.520

10.  Digital adherence technologies for the management of tuberculosis therapy: mapping the landscape and research priorities.

Authors:  Ramnath Subbaraman; Laura de Mondesert; Angella Musiimenta; Madhukar Pai; Kenneth H Mayer; Beena E Thomas; Jessica Haberer
Journal:  BMJ Glob Health       Date:  2018-10-11
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