- Biomedical Research (2016) Volume 27, Issue 3
Factors associated with patient delay among new tuberculosis patients in Anqing, China.
Dan Xia1†, Zhiping Zhang2†, Xianxiang Li2, Chao Jiang1, Jun Ma1, Shushu Ding1, Baifeng Chen1, Rui Guo1, Yufeng Wen1*
1School of Public Health, Wannan Medical College, China
2Tuberculosis Prevention and Control Department, Anqing Center for Disease Control and Prevention, China
†These authors contributed equally to this work.
Accepted date: February 22, 2016
Abstract
Tuberculosis remains a serious global public health problem. Delays in diagnosis and treatment of tuberculosis patients not only increases transmission of tuberculosis in the community but may also lead to more serious complications and higher mortality. The objective of this study was to assess factors associated with patient delay among new pulmonary tuberculosis patients in Anqing, China. From June 2013 to December 2014, a cross-sectional study was carried out among 1083 new pulmonary tuberculosis patients. Data were collected using a structured questionnaire (interviewer-administered questionnaire for illiterate patients and self-administered questionnaire for literate patients) and tuberculosis management system. All participants were divided into longer patient delay and shorter patient delay groups and non-conditional logistic regression was applied to determine the factors associated with longer patient delay. The median patient delay was 11 days (interquartile range: 1-34). The logistic regression showed that factors associated with longer patient delay included having expectoration when first consulted the healthcare system (OR: 1.520; 95 % CI: 1.020-2.266; P=0.040), having blood-tinged sputum when first consulted the healthcare system (OR: 0.490; 95% CI: 0.278-0.864; P=0.014) and unknown whether there were tuberculosis patients around (OR: 1.903; 95 % CI: 1.229-2.947; P=0.004). Tuberculosis patients with different symptoms seem to have different behaviors of patient delay. A combination of interventions is needed to encourage tuberculosis patients to seek appropriate healthcare as early as possible.
Keywords
Patient delay, Tuberculosis, New tuberculosis patients, Factors.
Introduction
Tuberculosis (TB) is a major public health burden throughout the world. Globally, about 9.6 million TB cases were diagnosed and 1.5 million died of TB in 2014 [1]. Early detection, diagnosis, and prompt initiation of effective chemotherapy are essential for an effective TB control program. However, delays in diagnosis and treatment are inevitable.
The Fifth National Sampling Survey of TB Epidemiology showed that only 47% Chinese patients with TB symptoms sought medical care timely [2]. In other developing countries, for example, in Northwest Ethiopia, 62% TB patients sought medical care after WHO recommended period (21 days) [3]; in Uganda, 58% TB patients had unacceptable patient delay and 88% had health service delay [4]. Delays in diagnosis and treatment of TB patients not only increases disease transmission within the community [5] but may also lead to more serious complications, higher mortality [6] and multi-drug resistant tuberculosis (MDR-TB) [7].
Patient delay, an important type of the delays, was studied frequently across countries. The median of patient delay varies significantly from 14 days in Malawi [8] to 30 days in South Brazil [9] and Angola [10] and up to 59 days in Ghana [11], 61 days in Mozambique [12]. The situation of patient delay is so serious; therefore, it is necessary to know the situation of patient delay in our country and then take measures to improve the situation.
Factors contributing to patient delay in diagnosis and treatment are likely to vary depending on the population’s local settings. The study among Chinese TB patients found that living in rural areas, female patients, and low educational attainment were risk factors for patient delay [13]. The previous report focusing on Asia emphasized that male, unemployed, low income, hemoptysis, positive sputum smear and long travel time/ distance to the first healthcare provider were significantly correlated with patient delay [14]. Another research in sub- Saharan Africa showed that consulting traditional healers first consistently led to patient delay [15]. In addition, multiple care-seeking [16], no medical insurance, perceived stigma [11], farming, low TB knowledge and coexistence of a chronic disease [12] were associated with prolonged patient delay. Therefore, discussing the problems of TB diagnosis and treatment in different regions, and finding the main factors associated with patient delay are crucial to TB control.
China has the world’s second largest tuberculosis epidemic. Anqing area, with high proportion population of farming in Anhui Province, has high TB prevalence. Studies on the delays in TB diagnosis and treatment in this area are absent. In this regard, it is necessary to explore the duration of patient delay and factors related to it among new TB patients in Anqing, Anhui Province.
Material and Methods
Study setting
Anqing area, situated at Southwest Anhui Province, has high TB prevalence. In 2013, the number of rural population was 3.16 million (59.04%) and the per capita gross domestic product (GDP) was 26657.89 RMB. Anqing area was selected not only due to its high proportion population of farming and high TB prevalence but also because it is a typical rural area in the central of China, and can represent the Central China in some extent.
Study population
This study was conducted from June 2013 to December 2014 in Anqing area. All the new pulmonary tuberculosis patients among eight counties and three municipal districts would be asked to fill in the questionnaire (interviewer-administered questionnaire for illiterate patients and self-administered questionnaire for literate patients) when they were registered in the TB management system of local Centers for Disease Control and Prevention (CDCs). 1118 TB patients who had lived in their current residence over six months before the survey were recruited. Among them 35 were excluded due to lack of information about patient delay.
The investigators in local TB dispensaries and CDCs had been trained before the survey. All TB patients were informed about the objectives of this study and provided verbal informed consent before the survey. Patients who refused to participate or worked in the city temporarily (seasonal workers) were dropped.
Questionnaire and data collection
The questionnaire was designed based on the standardized questionnaire on major issues of national infectious diseases [17]. It was pre-tested among 100 TB patients and modified as necessary. The first section of the questionnaire was information on socio-demographic characteristics (age, sex, ethnicity, residence, education level, family members and family income in the past year, smoking and drinking habits), medical insurance, TB patients around, history of bacillus Calmette-Guérin (BCG) vaccination, health education accessibility of TB.
The second section of the questionnaire was patients’ core knowledge on TB. It contained 11 items and was divided into several sections: TB pathogen (1 question), symptoms (3 questions), detection methods (2 questions), transmission (2 questions) and treatment (3 questions). Answers were established as yes, no and unknown and each question was awarded 1 mark for the correct answer, while each incorrect or unknown answer was given 0 mark. Then the score was dichotomized into two categories (good or poor knowledge) using the median score as the cut-off.
The third section of the questionnaire was about patient delay. Patients were asked to estimate the time in days from the onset of first TB symptoms to the first presented to the healthcare system (either public or private). Then we classified patient delay into two categories: shorter patient delay and longer patient delay using median as the cut-off. The symptoms when they first contacted with healthcare system and the institution where they first consulted were inquired as well.
Operational definition of terms
• Patient delay was defined as the time interval between the onset of any tuberculosis symptom (e.g., cough, expectoration, blood-tinged sputum, or night sweats) and first contact with the healthcare system (i.e., health centers, hospitals or TB treatment centers) [8,10,12,18].
• New tuberculosis patient refers to a patient who has never treated for tuberculosis or who has taken anti-tuberculosis drugs for less than one month or who has taken anti-tuberculosis drugs regularly for more than one month but has not completed the standard treatment regimen.
• Smoking included patients who were smoking presently or smoked previously.
• In term of education level, “elementary” was referred to elementary school; “secondary” was referred to junior high school, senior high school and secondary specialized school; “higher” was referred to junior college and above.
• “TB patients around” was referred to TB patients who were in the household, neighborhood, work place or school.
• Income was referred to per capita annual income (RMB).
• Body mass index (BMI) was calculated as weight in kilogram divided by height in meter squared, and then BMI was classified into three groups (<18.5 kg/m2, 18.5-23.9 kg/m2, >23.9 kg/m2).
Statistical analysis
EpiData software Version 3.1 was used for data entry and SPSS Version 18.0 was used for data analysis. The descriptive statistics (including median, interquartile range, frequencies and percentages) were used to show the distribution of the personal socio-demographic characteristics, core knowledge of TB, symptoms and institutions when first presented to the healthcare system, duration of patient delay. The median patient delay was used to dichotomize patient delay into acceptable (shorter) or longer delay [10,11,18,19]. Comparisons between groups were made using the Chi-square test for qualitative/categorical variables. The multivariate logistic regression analysis was used to evaluate associated factors of longer patient delay. Variables showed marginal association with longer patient delay in univariate analysis (P ≤ 0.20) [4,10,11,18,19] were included in the multivariate logistic model. P <0.05 was considered to indicate a statistically significant difference.
Ethics statement
The study is carried out in compliance with the Declaration of Helsinki of the World Medical Association. According to a protocol approved by Medical Ethics Committee of Wannan Medical College, all participants were informed about the objectives of this study and provided verbal informed consent before the survey.
Results
Socio-demographic characteristics of patients
Among the 1083 new TB patients, 72.3% were males, and the median age was 55 years (Interquartile Range (IQR): 38-65). A majority of patients had medical insurance (96.73%). There were 38.84% and 36.13% patients had elementary and secondary educational level, respectively. Most patients were from rural areas (87.87%) and had 3 or more family members (86.51%). Only 37.55% patients had BCG vaccination and 33.00% indicated having access to health education of TB. In addition, smear negative and smear positive patients accounted for 51.71% and 33.70%, respectively.
About 40% patients did not know whether there were TB patients around (Table 1).
Characteristics | Total (n, %) | Patient delay | χ2 | P | ||
---|---|---|---|---|---|---|
Longer (n, %) | Shorter (n, %) | |||||
Gender | Male | 783 (72.30) | 372 (70.71) | 404 (73.86) | 1.34 | 0.247 |
Female | 300 (27.70) | 154 (29.29) | 143 (26.14) | |||
Age group | <25 | 133 (12.33) | 56 (10.49) | 77 (14.13) | 4.321 | 0.229 |
25-45 | 214 (19.83) | 103 (19.29) | 111 (20.37) | |||
45-65 | 443 (41.06) | 231 (43.26) | 212 (38.90) | |||
≥ 65 | 289 (26.78) | 144 (26.97) | 145 (26.61) | |||
Missing | 4 | - | - | |||
Residence | Town | 116 (12.13) | 58 (12.11) | 58 (12.16) | 0.001 | 0.981 |
Rural area | 840 (87.87) | 421 (87.89) | 419 (87.84) | |||
Missing | 127 | - | - | |||
Ethnicity | Han | 1073 (99.54) | 533 (99.81) | 540 (99.26) | 0.767 | 0.381 |
Others | 5 (0.46) | 1 (0.19) | 4 (0.74) | |||
Missing | 5 | - | - | |||
Education | Illiterated | 220 (20.54) | 118 (22.26) | 102 (18.85) | 5.93 | 0.115 |
Elementary | 416 (38.84) | 216 (40.75) | 200 (36.97) | |||
Secondary | 387 (36.13) | 174 (32.83) | 213 (39.37) | |||
Higher | 48 (4.48) | 22 (4.15) | 26 (4.81) | |||
Missing | 12 | - | - | |||
Medical insurance | Yes | 1035 (96.73) | 513 (96.61) | 522 (96.85) | 0.047 | 0.828 |
No | 35 (3.27) | 18 (3.39) | 17 (3.15) | |||
Missing | 13 | - | - | |||
Income | <5000 | 255 (29.31) | 141 (32.12) | 114 (26.45) | ||
5000~15000 | 506 (58.16) | 239 (54.44) | 267 (61.95) | 5.078 | 0.079 | |
≥ 15000 | 109 (12.53) | 59 (13.44) | 50 (11.60) | |||
Missing | 213 | - | - | |||
Family members | <3 | 142 (13.49) | 64 (12.38) | 78 (14.55) | 1.461 | 0.482 |
3~5 | 458 (43.49) | 223 (43.13) | 235 (43.84) | |||
≥ 5 | 453 (43.02) | 230 (44.49) | 223 (41.60) | |||
Missing | 30 | - | - | |||
Smoking | Yes | 475 (44.43) | 243 (45.68) | 232 (43.20) | 0.662 | 0.416 |
No | 594 (55.57) | 289 (54.32) | 305 (56.80) | |||
Missing | 14 | - | - | |||
Drinking | Yes | 294 (27.55) | 135 (25.71) | 159 (29.34) | 1.752 | 0.186 |
No | 773 (72.45) | 390 (74.29) | 383 (70.66) | |||
Missing | 16 | - | - | |||
BCG | Yes | 383 (37.55) | 171 (33.14) | 212 (42.06) | 8.659 | 0.003 |
No | 637 (62.45) | 345 (66.86) | 292 (57.94) | |||
Missing | 63 | - | - | |||
TB patients around | Yes | 136 (12.87) | 223 (42.72) | 245 (45.79) | 3.484 | 0.175 |
No | 453 (42.86) | 61 (11.69) | 75 (14.02) | |||
Unknown | 468 (44.28) | 238 (45.59) | 215 (40.19) | |||
Missing | 26 | - | - | |||
Had health education of TB | Yes | 327 (33.00) | 175 (35.21) | 152 (30.77) | 2.211 | 0.137 |
No | 664 (67.00) | 322 (64.79) | 342 (69.23) | |||
Missing | 92 | - | - | |||
BMI | <18.5 | 289 (28.76) | 138 (27.11) | 151 (30.44) | 1.412 | 0.494 |
18.5~23.9 | 610 (60.70) | 315 (61.89) | 295 (59.48) | |||
≥ 24 | 106 (10.55) | 56 (11.00) | 50 (10.08) | |||
Missing | 78 | - | - | |||
Sputum smear status | Negative | 560 (51.71) | 269 (50.19) | 291 (53.20) | 1.141 | 0.538 |
Positive | 365 (33.70) | 183 (35.26) | 176 (32.18) | |||
Unknown | 158 (14.59) | 78 (14.55) | 80 (14.63) | |||
Knowledge of TB | Good | 569 (52.54) | 278 (51.87) | 291 (53.20) | 0.193 | 0.66 |
Poor | 514 (47.46) | 258 (48.13) | 256 (46.80) | |||
BCG: Bacillus Calmette-Guérin; BMI, Body Mass Index |
Table 1: Socio-demographic characteristics of new Tuberculosis (TB) patients and the comparison with shorter and longer patient delay.
Patient delay
The median patient delay was 11 days (IQR: 1-34). Among the socio-demographic characteristics, only BCG vaccination had significant difference between two groups (P=0.003) (Table 1).
Core knowledge of TB
41.92% patients knew the pathogen of TB and 54.66% patients had knowledge that cough and expectoration for 2 or more weeks was the symptom of TB. Most patients (78.95%) realized that TB was an infectious disease and 55.22% knew that TB could transmit by cough/sneezing. Furthermore, 70.91% patients had heard about the national TB policy of free detection/treatment, and 58.91% knew the institutions to implement the policy. Only TB symptom of blood-tinged sputum had difference between the shorter and longer patient delay groups (P=0.045) (Table 2).
Core knowledge of TB | Total n (%) | Patient delay | χ2 | P | |
---|---|---|---|---|---|
Longer (n, %) | Shorter (n, %) | ||||
Had knowledge of the pathogen of TB | 454 (41.92) | 240 (44.78) | 214 (39.12) | 3.554 | 0.059 |
Had knowledge of TB symptoms | |||||
Cough and expectoration for 2 or more weeks | 592 (54.66) | 284 (52.99) | 308 (56.31) | 1.206 | 0.272 |
Hemoptysis | 456 (42.11) | 212 (39.55) | 244 (44.61) | 2.838 | 0.092 |
Blood-tinged sputum | 336 (31.02) | 151 (28.17) | 185 (33.82) | 4.037 | 0.045 |
All above TB symptoms | 291 (26.87) | 132 (24.63) | 159 (29.07) | 2.717 | 0.099 |
Had knowledge of TB transmission | |||||
TB is an infectious disease | 855 (78.95) | 426 (79.48) | 429 (78.43) | 0.18 | 0.672 |
Transmitted by cough/sneezing | 598 (55.22) | 304 (56.72) | 294 (53.75) | 0.965 | 0.326 |
Had knowledge of TB detection method | |||||
Sputum smear examination | 497 (45.89) | 242 (45.15) | 255 (46.62) | 0.235 | 0.628 |
X-ray | 479 (44.23) | 235 (43.84) | 244 (44.61) | 0.064 | 0.8 |
Had knowledge of TB treatment | |||||
TB is a curable disease | 768 (70.91) | 391 (72.95) | 377 (68.92) | 2.128 | 0.145 |
Aware of free detection/treatment policy | 770 (71.10) | 387 (72.20) | 383 (70.02) | 0.628 | 0.428 |
Aware of institutions to implement the free detection/treatment policy | 638 (58.91) | 325 (60.63) | 313 (57.22) | 1.303 | 0.254 |
Table 2: Core TB knowledge among new TB patients and the comparison with shorter and longer patient delay.
The median score of core TB knowledge was 7 (IQR: 3-9).
There was no difference of level of TB knowledge between shorter and longer patient delay groups (Table 1).
TB symptoms when patients first presented to the healthcare system
The results indicated that the common symptoms were cough (66.39%), expectoration (36.29%), fatigue (20.24%) and chest tightness and shortness of breath (20.22%) when patients first presented to the healthcare system. There were significant differences of cough, expectoration, blood-tinged sputum, fatigue and lack of appetite between shorter and longer patient delay groups (all P <0.05) (Table 3).
Symptoms | Total(n,%) | Patient delay | χ2 | P | |
---|---|---|---|---|---|
Longer(n,%) | Shorter(n,%) | ||||
Cough | 719 (66.39) | 392 (73.13) | 327 (59.78) | 21.635 | <0.0001 |
Expectoration | 393 (36.29) | 229 (42.72) | 164 (29.98) | 19.012 | <0.0001 |
Chest tightness and shortness of breath | 219 (20.22) | 116 (21.64) | 103 (18.83) | 1.327 | 0.249 |
Blood-tinged sputum | 182 (16.81) | 69 (12.87) | 113 (20.66) | 11.736 | 0.0006 |
Low-grade fever | 184 (16.99) | 84 (15.67) | 100 (18.28) | 1.308 | 0.253 |
Night sweat | 145 (13.39) | 82 (15.30) | 63 (11.52) | 3.338 | 0.068 |
Fatigue | 217 (20.24) | 127 (23.69) | 90 (16.45) | 8.859 | 0.003 |
Lack of appetite | 84 (7.76) | 51 (9.51) | 33 (6.03) | 4.588 | 0.032 |
Other | 99 (9.14) | 49 (9.14) | 50 (9.14) | 0.000 | 0.999 |
Table 3: TB symptoms when patients first presented to the healthcare system and the comparison with shorter and longer patient delay.
Healthcare system TB patients first consulted
Most TB patients (57.62%) first contacted with comprehensive county hospital, only 18.84% first presented to TB prevention and control institutions (Table 4). But TB patients in shorter and longer patient delay groups had no difference of the healthcare system they consulted first (P=0.056).
Healthcare system TB patients first consulted | Total n (%) | Patient delay | χ2 | P | |
---|---|---|---|---|---|
Longer (n, %) | Shorter (n, %) | ||||
TB prevention and control institutions (e.g. TB dispensaries, CDC, epidemic prevention station) | 204 (18.84) | 117 (21.83) | 87 (15.90) | 3.653 | 0.056 |
Comprehensive County Hospital | 624 (57.62) | 299 (55.78) | 325 (59.41) | - | - |
Township Health Center | 119 (10.99) | 60 (11.19) | 59 (10.79) | - | - |
Tuberculosis Specialist Hospital | 33 (3.05) | 14 (2.61) | 19 (3.47) | - | - |
Others | 103 (9.51) | 46 (8.58) | 57 (10.42) | - | - |
CDC: Center for Disease Control and Prevention |
Table 4: Healthcare system TB patients first consulted.
Factors associated with longer patient delay
The multivariate logistic analysis showed that expectoration when first consulted the healthcare system (OR: 1.520; 95 % CI: 1.020-2.266; P=0.040), blood-tinged sputum when first consulted the healthcare system (OR: 0.490; 95 % CI: 0.278-0.864; P=0.014) and unknown whether there were TB patients around (OR: 1.903; 95 % CI: 1.229-2.947; P=0.004) were associated factors of longer patient delay (Table 5).
Factors | B | S.E. | Wald χ2 | OR | 95%CI | P |
---|---|---|---|---|---|---|
Expectoration when first consulted the healthcare system | 0.419 | 0.204 | 5.241 | 1.520 | 1.020-2.266 | 0.040 |
Blood-tinged sputum when first consulted the healthcare system | -0.714 | 0.290 | 6.079 | 0.490 | 0.278-0.864 | 0.014 |
Unknown whether there were TB patients around | 0.644 | 0.223 | 8.316 | 1.903 | 1.229-2.947 | 0.004 |
B, regression coefficient; S.E.: Standard Error; OR: Odds Ratios; 95% CI, 95% Confidence Interval |
Table 5: Multivariate logistic regression analysis on factors related to longer patient delay.
Discussion
Tuberculosis (TB) is preventable if people can access to health care for prompt diagnosis and treatment. Analysis of factors associated with patient delay is an important starting point to identify how to improve the quality of TB care and control. This study assessed patient delay and associated factors in the diagnosis of TB in Anqing, China.
Differing from the previous reports in Shandong, China [20] and southern Taiwan [21] where the median initial health care-seeking delay time were 6 and 7 days, respectively, this study showed that 49.49 % of patients delayed their first visit to healthcare system following symptoms for more than 11 days. And this result was similar to the studies in Shenzhen, China [22] and Malawi [8] where the median healthcare-seeking delay time was 10 and 14 days, respectively. However, a majority of researches reported that the median patient delay was 30 days in low and high prevalence countries [9,10,23,24], and even longer to 59 days in Ghana [11] and 61 days in Mozambique [12]. These differences might be linked to the fact that the majority of the patient delay studies carried out elsewhere were conducted in referral hospitals, where longer patient delay was expected [12]. In addition, TB patients had only vague symptoms and could not clearly recognize symptoms at the onset of the disease were an aspect of reasons [10]. On the other hand, a majority of patients had medical insurance, suggesting that patients in this study setting had better access to healthcare, so they were less likely to delay. And besides, TB patients included retreatment cases or not might also result in the differences.
Factors associated patient delay like patients’ characteristics were studied frequently, but other enabling factors were studied infrequently, although they were most often associated with delay [15]. Our study included not only patients’ socio-demographic characteristics but also patients’ core knowledge of TB, TB symptoms when first presented to the healthcare system and other enabling factors. We found that expectoration when first consulted the healthcare system was associated with longer patient delay, which was more or less similar to the studies in the state of Rio de Janeiro, Brazil [23] and in France [24] that cough and initial fever were independently associated with patient delay, respectively. The reasons might be ascribed to the fact that expectoration, cough, fever etc. were common symptoms for both tuberculosis and other diseases. When patients had these symptoms, they might not care about these symptoms or make their first visit to a drug store and take self-medication, and thus delayed. Self-medication, on the other hand, was also a risk factor for patient delay [18,25].
TB patients neglected the symptoms was the most common reason for patient delay [26]. However, Storla et al. demonstrated that although patients had classical TB symptoms, medical staff they consulted first often did not ask about previous TB, perform an X-ray, or obtain a sputum smear [27]. Because TB symptoms, especially chronic cough with sputum, were prevalent in most people, they often neglected the suspicion of TB [27]. While patients had blood-tinged sputum or hemoptysis [14] were less likely to had longer patient delay. The reasons might be attributed to the fact that hemoptysis and blood-tinged sputum were more serious than cough, expectoration etc. So patients with these symptoms were more likely to seek medical care immediately and medical staff was also less likely to neglect them.
It is important for people to know whether there are TB patients around. We can imagine that if people have symptoms like cough, expectoration but do not know whether there are TB patients around, they will not consult healthcare system for TB timely. Furthermore, according to the study in San Francisco, a smear-negative TB patient contributed to 17% (95% CI: 12-24%) of TB transmission [28]. So people should know whether there are TB patients around and TB patients should seek medical help immediately in order to reduce the period of transmission, reduce the risk of exposure of other people.
Unlike other studies [8,12,16], we could not find associations between lacking TB knowledge and patient delay. The reasons might be linked to the fact that in our study most patients first consulted comprehensive county hospital, where medical personnel would tell them some basic knowledge of TB. So there were no significant differences in TB knowledge. In addition, other factors such as age, sex, educational level, sputum smear status, first contact rural primary healthcare vs. district/mission facilities or the health centre differing from the DOTS centre, which had been identified to be significantly associated with patient delay [8,10,13,14,22,25] could not be established in this study as well. This might be due to different sample sizes and study settings.
Feasible and effective measures should be taken to improve the situation of delays in diagnosis and treatment of TB patients. One is the “care manager” nurses in the primary health care system [29]. They serve as a bridge between physicians and patients. They understand the diagnosis and treatment goals of physicians’ and can explain to their patients to help them understand their illness. They also pass patients’ needs to physicians to help establish more suitable treatment regimes. In addition, they help patients to change their lifestyle, monitor their physical condition, increase their health knowledge, enhance self-management skills, and achieve better compliance with care recommendations.
Our study has several limitations. Firstly, because of this design and limited study area, the patient delay of new TB patients may not be representative of those at the national level. Secondly, the questionnaire we used did not contain information on occupation, HIV status, self-medication and multiple care-seeking behaviors, which probably had associations with patient delay. Thirdly, patients’ attitude and practice of TB (e.g., perceived severity of stigma when had TB), which were likely to associated with the patient delay, were not included in our study. Further studies on other regions are needed and more enabling factors should be included. Forth, use questionnaire may cause deficiency of some important information, especially self-administered questionnaire. Although we referred to TB management system, we could not add the whole missing information. Interviewer-administered questionnaire should be adopted no matter illiterate patients and literate patients.
Conclusion
In summary, about half of TB patients in our study had longer patient delay, and TB patients with different symptoms seem to have different behaviors of patient delay. Measures must be taken to encourage TB patients to seek medical help as early as possible. In addition, people were encouraged to know whether there were TB patients around and take suitable action when contact with TB patients.
Acknowledgement
This work was supported by the college students’ scientific research fund of Wannan Medical College (No.WK2014527 and No.WK2014528) and the project of provincial scientific research of Anhui (No. SK2013B549).
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