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Erschienen in: BMC Pulmonary Medicine 1/2019

Open Access 01.12.2019 | Research article

Nutritional status of tuberculosis patients, a comparative cross-sectional study

verfasst von: Berhanu Elfu Feleke, Teferi Elfu Feleke, Fantahun Biadglegne

Erschienen in: BMC Pulmonary Medicine | Ausgabe 1/2019

Abstract

Background

Each year, more than 13.7 million people became an active case of tuberculosis and more than 1.5 million cases of TB patient will die. The association between TB and malnutrition is bi-directional, TB leads the patient to malnutrition, and malnutrition increases the risk of developing active TB by 6 to 10 times. Improving the nutrition of individual greatly reduces tuberculosis. The aims of this study were to assess the nutritional status and determinants of underweight among TB patients.

Methods

A comparative cross-sectional study design was implemented. The sample size was calculated using 95% CI, 90% power, the prevalence of malnutrition in TB patients 50%,
TB patients to TB free resident ratio of 3, the design effect of 2 and a 5% non-response rate. Systematic random sampling was used to select TB patients and simple random sampling technique was used to select TB free residents. The data were collected from July 2015–May 2018. The data were collected by interviewing the patient, measuring anthropometric indicators and collecting the stool and blood samples. The data were entered into the computer using Epi-info software and analyzed using SPSS software. Descriptive statistics were used to find the proportion of malnutrition. Binary logistic regression was used to identify the determinants of malnutrition.

Results

A total of 5045 study participants (1681 TB patients and 3364 TB free residents) were included giving for the response rate of 93.1%. The prevalence of underweight among TB patients was 57.17% (95% CI: 54.80, − 59.54%) and 88.52% of TB patients were anemic. The prevalence of malnutrition (underweight) among TB free residents was 23.37% (95% CI: 21.93–24.80). The nutritional status of TB patients was determined by site of infection AOR: 0.68 [0.49–0.94], sex of the patient AOR: 0.39 [0.25–0.56], residence AOR: 3.84 [2.74–5.54], intestinal parasite infection AOR: 7 [5.2–9.95], problematic alcohol use AOR: 1.52 [1.17–2.13].

Conclusion

High proportions of TB patients were malnourished. TB patients were highly susceptible to malnutrition and even a very distal reason for malnutrition in the community became a proximal cause for TB patients.
Hinweise

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Abkürzungen
AOR
Adjusted odds ratio
BMI
Body Mass Index
CI
Confidence Interval
COR
crude odds ratio
DOTS
Directly Observed Treatment Strategy
H.nana
Hemnolephus Nana
HC
Health Center
IT
Information Technology
MCHC
Mean corpuscular hemoglobin concentration
MCV
Mean corpuscular volume
MDR-TB
Multidrug Resistance Tuberculosis
ML
Milliliters
OPD
Out Patient Department
OR
Odds Ratio
RPM
Revolution per Minute
SAF
Sodium Acetate Acetic Acid Formulation
SD
Standard Deviation
SPSS
Statistical Software for Social Science
TB
TB
USA
United State of America
WHO
World Health Organization

Background

Underweight is a malnutrition stage in which the body mass index (BMI) of adult scores less than 18.5 KG/M2 cuts-points [1, 2]. It results from an imbalance between the supply of food and the body demands for the nutrients. Conditions like genetics, metabolism disorders, medication side effects, eating disorders, and tuberculosis predispose to underweight [3, 4].
Tuberculosis (TB) is an infectious disease caused by mycobacterium TB species. According to the world health organization (WHO), tuberculosis attacks 10 million people and kills 1.3 million people every year [5]. The association between TB and malnutrition is bi-directional, TB predisposes the patient to malnutrition and malnutrition increases the risk of developing active TB by 6 to 10 folds [611]. One-quarter of TB in the world was as a result of malnutrition, improving the nutritional status of the individual decreases the risk of TB [12]. Additionally, malnutrition increases TB relapse and mortality [1320].
The treatment outcomes of TB patients can be improved by studying their nutritional status [13, 20]. Incorporating nutritional support during directly observed treatment strategy (DOTS) increases the probability of favorable treatment outcomes [16, 19, 2127].
The prevalence of malnutrition in the South American continent range from 20 - 50% [28, 29], in the Asian continent malnutrition among TB patient ranges from 68.6 - 87% [11, 20] and in the United Kingdom, the body mass index of TB patients was 13% lower than the general community [18]. On the African continent, 29 - 61% of TB patients were malnourished [14, 24, 3033].
The tuberculosis treatment guideline neglects the nutritional supplementation part of an intervention. Priority was not given by decision-makers as a result of evidence scarcity. This study will generate baseline information to give priority to the nutritional intervention part of TB treatment.
The objectives of this research were to estimate and compare the proportion of underweight and their determinants among the TB patients in a resource-limited setting.

Methods

A comparative cross-sectional study design was implemented. This study was conducted in Amhara regional state of Ethiopia. The region contains 25,000,000 population and every year more than 25,000 tuberculosis cases are reported from the health facilities. The target population was TB patients receiving the DOTS in the health centers of the Amhara region. New TB patients diagnosed during the data collection method were included. TB patients not willing to participate during the study and TB patients unable to communicate properly were excluded. The nutritional status of TB patients was compared with TB free residents. The sample size was calculated using Epi-info software version 7 assuming 95% CI, 90% power, the proportion of malnutrition in TB patients 50%, TB patients to TB free resident ratio of 3, the design effect of 2 and a 5% non-response rate [6, 34]. Finally, the estimated sample size was 1806 TB patients and 3612 TB free residents. The systematic random sampling technique was used to select TB patients from the selected governmental health facilities. Ethiopia adopts the tree health tier system; primary level health care (including the health center and district hospital and expected to serve up to 100,000 population), secondary level health care (includes the general hospital and expected to serve up to 1.5 million population) and the tertiary level health care (includes the specialized referral hospitals and expected to serve up to 5 million people). TB free residents were selected randomly from the community from the nearby house of the TB patients. The data were collected from July 2015–May 2018.
The data were collected using patient interview, measuring anthropometric indicators and collecting the stool and blood samples. The stool samples were collected to adjust for the effect of intestinal parasites on nutritional status because, in resource-limited settings like Ethiopia, intestinal parasites are the main predictor’s malnutrition. The blood samples were collected to see the effect of anemia on underweight because literature reports their relationship. For the patient interview part, the questionnaire was prepared in English then translated to Amharic (local language) then back to English to keep its consistency. The interview was conducted by 30 diploma nurse professionals and supervised by 8 degree holder health professionals. Weight and height of each study participant were measured by clinical nurses. Digital weight scale was used to measure the weight of each study participant and weight was measured to the nearest 0.1 kg. Height was measured using the vertical measuring rod to the nearest 0.1 cm. The participants’ shoes, hair clips, and braids were removed during the measurement. Participants were positioned feet together, feet flat on the ground, heels touching the backplate of the measuring instrument, legs straight, buttocks against the backboard, scapula against the backboard and arms were loosely at their side [1, 35].
The blood and stool samples were collected by 13-degree holder laboratory technologists and supervised by second-degree holder laboratory technologists. For each study participant, one gram stool sample was collected in 10 ml SAF (sodium acetate-acetic acid-formalin solution) and transported with a preservative to the regional laboratory. A concentration technique was used. The stool samples were well mixed and filtered using a funnel with gauze, then centrifuged for one minute at 2000 RPM (revolution per minute) and the supernatant was discarded. 7 ML (Milliliter) normal saline was added, mixed with a wooden stick, 3 ML ether was added and mixed well then centrifuged for 5 min at 2000 RPM. Finally, the supernatant was discarded and the whole sediment was examined for parasites. 5 ML blood sample was collected from a study participant following standard operating procedures to measure the hemoglobin concentration and the red cell indices of patients using Mindray hematology analyzer [36]. CAGE tool was used to assess the problematic alcohol use. Study participants unable to read and wrote were labeled as illiterate.
To maintain the quality of the data pretest was conducted, training was given for data collectors and supervisors. The whole data collection processes were closely supervised by the investigators and supervisors.
The data were entered in the computer using Epi-info software transferred into SPSS software version 20 and WHO Anthro-plus software for the analysis. Descriptive statistics were used to identify the proportion of malnutrition. Binary logistic regression was used to identify the determinants of malnutrition. Variables with a p-value less than 0.05 were declared as predictors of malnutrition. Body mass index (BMI) was used to assess nutritional status. BMI was computed as = weight (in kilogram)/ (height in meter) 2. BMI less than 18.5 KG/M2 was considered underweight [1].
Ethical clearance was obtained from the University of Bahir Dar ethical review committee. Formal permission was obtained from the Amhara National Regional State Health Bureau ethics committee and the respective authorities. Written informed consent was obtained from each study participant. The confidentiality of the data was kept at all steps. Study participants the right to withdraw from the study at any points were respected. Study participants with intestinal parasites or low hemoglobin concentration were linked to the nearby health facility.

Results

A total of 5045 study participants was included giving for the response rate of 93.1%, 286 study participants did not volunteer to participate and 87 study participants were excluded due to incomplete data. The mean age of the study participants was 28 years (standard deviation [SD] ±14 years), 18 year was the youngest age of study participants, 1681 of the study participants was TB patients and 3364 of the study participants were TB free residents. Female constitute 53.9% (2721) of the study participants, 26% of the study participants were from the urban area, 90% of the study participants were Amhara by ethnicity and 96.7% of the study participants were Orthodox Christian believers.

Profile of TB patients

A total of 1681 TB patients were included giving for the response rate of 93%. The mean age of the study participants was 27.78 years (SD ±13.98 years), 42.3% of TB patients were from the urban area and 76.8% of TB patients were pulmonary TB patients (Table 1).
Table 1
Profile of TB patients (n = 1681)
S a
Population profile
Frequency
Percentage
Normal BMI
Underweight
Frequency
Percentage
Frequency
Percentage
1.
Sex
Male
1162
69.1
527
31.4
633
37.8
Female
519
30.9
193
11.3
327
19.4
2.
Residence
Urban
711
42.3
218
13
493
29.3
Rural
970
57.7
502
29.9
468
27.8
3.
Site of infection
Pulmonary tuberculosis
1297
76.8
556
33.1
735
43.7
Extra-pulmonary TB
390
23.2
164
9.8
226
13.4
4.
HIV status
Positive
595
35.2
307
18.3
285
17
Negative
1089
64.8
339
20.2
676
40.2
5.
Income in birrb
< 1000
1170
69.6
463
27.5
707
42.1
1000–2000
316
18.8
186
11.1
130
7.7
≥2001
195
11.6
71
4.2
124
7.4
6.
Occupation
Farmer
835
49.7
407
24.2
428
25.5
Others
846
50.3
313
18.6
533
31.7
7.
Family size
≤4
648
38.5
499
29.7
149
8.9
> 4
1033
61.5
221
13.1
812
48.3
8.
Marital status
Single
694
41.3
278
16.5
416
24.7
Married
966
57.5
427
25.4
539
32.1
Divorced
18
1.1
14
0.8
4
0.2
Widowed
3
0.2
1
0.1
2
0.1
9.
Anemia
Present
1488
88.5
654
38.9
834
49.6
Absent
193
11.5
66
3.9
127
7.6
10.
Age
< 25
1350
80.3
513
30.5
837
49.8
≥25
331
19.7
207
12.3
124
7.4
11.
Intestinal parasitic infection
Ascaris lumbricoides
409
24.3
82
4.9
327
19.5
Hookworm
282
16.8
112
6.7
170
10.1
Strongloid stercolaris
75
4.5
19
1.1
56
3.3
Others
127
7.6
22
1.3
105
6.2
Not infected
788
46.9
485
28.9
303
18
aSN serial number
b1 US dollar =23 birr
The prevalence of underweight among TB patients was 57.17% (95% CI: 54.80 -59.54%), 88.52% of TB patients were anemic (95% CI: 86.99 - 90.04%) and 48.25% (718) of anemia was iron deficiency anemia (Table 2).
Table 2
The type of anemia among TB patients (n = 1488)
 
Mean corpuscular volume (MCV)
Total
Malnutrition
Normocytic
Microcytic
Macrocytic
Norma
Underweight
No.
Frequency
Percentage
Frequency
Percentage
Mean corpuscular hemoglobin concentration (MCHC)
Normochromic
672
15
6
693
282
19
411
27.6
Hypochromic
15
718
4
737
353
23.7
384
25.8
Hyperchromic
14
12
32
58
19
1.3
39
2.6
Total
No.
701
745
42
1488
    
%
47.11
50.07
2.82
100
    
After adjusting for type of tuberculosis, sex, residence, educational status, intestinal parasitic infection, alcohol intake, age, HIV infection, family size, belief in avoiding a certain type of foods, income, smoking, and occupation; the following results were obtained: The odds of malnutrition among extra-pulmonary TB patients were 47% higher than pulmonary TB patients (AOR 0.68: [95% CI; 0.49–0.94]. In female TB patients, the odds of malnutrition were 2.56 higher than male. (AOR: 0.39 [95% CI; 0.25–0.56]). The odds of malnutrition among TB patients were 3.84 folds higher in the urban areas than the rural area (AOR 3.84 [95% CI: 2.74–5.54]). The odds of malnutrition were seven-folds higher among intestinal parasites positive TB patients than intestinal parasite negative TB patients (AOR 7: [95% CI: 5.2–9.95]). Problematic alcohol use increases the odds of malnutrition by 1.52 folds (AOR 1.52: [95% CI: 1.17–2.13]). Anemic TB patients had 3.23 folds higher risk of malnutrition than non-anemic TB patients (AOR 3.23: [95% CI; 1.89–5.51]). The odds of malnutrition were 3.23 higher in TB patients whose age was greater than 25 years (AOR 0.31 [95% CI; 0.21–0.46]). The odds of malnutrition were 1.96 folds higher among HIV positive TB patients than HIV negative TB patients (AOR 1.96: [95% CI; 1.47–2.7]). The odds of malnutrition were 15.75 folds higher among TB patients with high family size (AOR 15.75: [95% CI; 11.58–21.42]). Believe in avoiding certain types of food increase the odds of malnutrition by 3.19 folds (AOR 3.19: [95% CI: 2.37–4.31]). (Table 3).
Table 3
Malnutrition predictors in TB patients (n = 1681)
Variables
Malnutrition
CORa [95% CI]
AORb [95% CI]
P-value
Underweight
Normal BMI
Type of TB
Pulmonary TB
735
556
0.96 [0.76–1.21]
0.68[0.49–0.94]
0.02
Extra-pulmonary TB
226
164
Reference
Reference
 
Sex
Male
635
527
0.71[0.58–0.88]
0.39 [0.25–0.56]
< 0.01
Female
326
193
Reference
Reference
 
Residence
Urban
493
218
2.43 [1.98–2.98]
3.84 [2.74–5.54]
< 0.01
Rural
468
502
Reference
Reference
 
Educational status
Literate
756
544
1.19 [0.95–1.5]
0.72 [0.52–1.02]
0.06
Illiterate
205
176
Reference
Reference
 
Intestinal parasitic infection
Present
658
235
4.48 [3.64–5.51]
7 [5.2–9.95]
< 0.01
Absent
303
485
Reference
Reference
 
Alcohol intake
Yes
430
277
1.29 [1.06–1.58]
1.52 [1.17–2.13]
< 0.01
No
531
443
Reference
Reference
 
Anemia
Present
834
654
0.66 [0.48–0.91]
3.23 [1.89–5.51]
< 0.01
Absent
127
66
   
Age
≥25
124
207
0.37 [0.29–0.47]
0.31 [0.21–0.46]
< 0.01
< 25
837
513
Reference
Reference
 
HIV infection
Positive
285
307
0.57 [0.46–0.70]
1.96 [1.47–2.7]
< 0.01
Negative
676
413
Family size
> 4
812
221
12.30 [9.65–15.69]
15.75 [11.58–21.42]
< 0.01
≤4
149
499
Believe in avoiding a certain type of food
Yes
588
209
3.85 [3.13–4.74]
3.19 [2.37–4.31]
< 0.01
No
373
511
aCOR crude odds ratio
bAOR adjusted odds ratio

Profile of TB free study participants

A total of 3364 TB free study participants was included giving for the response rate of 93.13%. The mean age of the study participants was 28.3 years (SD ±14.03 years). Female constitute 65.5% of the study participants, and 81.8% of the study participants were from the rural areas (Table 4).
Table 4
Profile of TB free study participants (n = 3364)
SN
Population profile
Frequency
Percentage
Normal BMI
Underweight
Frequency
Percentage
Frequency
Percentage
1.
Sex
Male
1162
34.5
851
25.3
331
9.2
Female
2202
65.5
1727
51.3
475
14.1
2.
Residence
Urban
611
18.2
451
13.4
160
4.8
Rural
2753
81.8
2127
63.2
626
18.6
3.
HIV status
Positive
31
0.9
15
0.4
16
0.5
Negative
3333
99.1
2563
76.2
770
22.9
4.
Income in birr
< 1000
2558
76
2000
59.5
558
16.6
1000–2000
316
9.4
227
6.7
89
2.6
≥2001
490
14.56
351
10.43
139
4.13
5.
Occupation
Farmer
507
15.1
401
11.9
106
3.2
Others
2857
84.9
2177
64.7
680
20.2
6.
Smoking
Yes
140
4.16
119
3.5
21
0.6
No
3224
95.84
2459
73.1
765
22.7
7.
Family size
≤4
151
4.5
115
3.4
36
1.1
> 4
3243
95.5
2463
73.2
750
22.3
8.
Marital status
Single
1474
43.8
1169
34.8
305
9.1
Married
1854
55.1
1379
41
475
14.1
Divorced
33
1
27
0.8
6
0.2
Widowed
3
0.1
3
0.1
0
0
9.
Anemia
Present
1742
51.8
1475
43.8
267
7.9
Absent
1642
48.2
1103
32.8
519
15.4
10.
Age in years
< 25
2622
77.9
1984
59
638
19
≥25
742
22.1
594
17.7
148
4.4
11.
Intestinal parasitic infection
Ascaris Lumbricoides
530
15.8
331
9.8
199
5.9
Hookworm
401
11.9
268
8
133
4
Strongyloides stercolaris
99
2.9
74
2.2
25
0.7
Others
433
12.9
319
9.5
114
2.7
Not infected
1901
56.5
1586
47.1
315
9.4

Malnutrition in the TB free residents

The prevalence of malnutrition (underweight) among TB free residents was 23.37% (95% CI: 21.93–24.80). The prevalence of anemia was 51.78% (95% CI: 50.09–53.47%). The predominant type of anemia was Normochromic Normocytic accounting for 63.32%, followed by Hypochromic Microcytic anemia 32.72%. (Table 5).
Table 5
The type of anemia among TB free residents (n = 1742)
 
MCV
Total
Normal
Underweight
 
Frequency
Percentage
Frequency
Percentage
Normocytic
Microcytic
Macrocytic
MCHC
Normochromic
1103
11
6
1120
853
49
267
15.3
Hypochromic
2
570
4
576
576
33.1
0
0
Hyperchromic
2
12
32
46
46
2.6
0
0
Total
1107
293
42
1742
    
After adjusting for sex, residence, educational status, intestinal parasitic infection, alcohol intake, age, HIV infection, family size, believes in avoiding a certain type of food, income, smoking, and occupation; the following results were obtained:
The odds of malnutrition were 2.5 folds higher in male than female (AOR 2.5: [95% CI; 1.72–3.63]). Intestinal parasitic infection increases the odds of malnutrition by 3 folds higher (AOR 3.07: [95% CI; 2.38–3.96]). The odds of malnutrition were 7.82 folds higher among anemic residents (AOR 7.82: [95% CI; 5.74–10.63]) than non-anemic residents. The odds of malnutrition among study participants whose age was ≥25 years was 27% lower (AOR 0.73 [95% CI; 0.59–0.91]). HIV infection increases the odds of malnutrition by 4.51 folds than HIV free residents (AOR 4.5:1 [95% CI; 2.13–9.53]). (Table 6).
Table 6
Predictors of malnutrition among TB free residents (n = 3364)
Variables
Malnutrition
COR [95% CI]
AOR [95% CI]
P-value
Underweight
Normal BMI
Smoking
Yes
21
119
0.57 [0.34–0.93]
0.64 [0.39–1.05]
0.076
No
765
2459
Sex
Male
311
851
1.33 [1.12–1.57]
2.5[1.72–3.63]
< 0.01
Female
475
1727
Residence
Urban
160
451
1.21 [0.98–1.48]
0.89 [0.71–1.13]
0.34
Rural
626
2127
Income
< 2000 birr
734
2442
0.79 [0.56–1.11]
1.434 [1.00–2.06]
0.06
≥2000 birr
52
136
Intestinal parasitic infection
Present
471
992
2.39 [2.02–2.82]
3.07 [2.38–3.96]
< 0.01
Absent
315
1586
Alcohol intake
Yes
251
878
0.91 [0.76–1.08]
1.07 [0.88–1.29]
0.53
No
535
1700
Anemia
Present
267
1475
0.38 [0.32–0.46]
7.82 [5.74–10.63]
< 0.01
Absent
519
1103
Age
≥25
148
594
0.77 [0.63–0.95]
0.73 [0.59–0.91]
< 0.01
< 25
638
1984
HIV infection
Positive
16
15
3.55 [1.66–7.61]
4.51 [2.13–9.53]
< 0.01
Negative
770
2563
Family size
≤4
36
115
1.03 [0.69–1.53]
0.96 [0.63–1.43]
0.81
> 4
750
2463
Believe in avoiding a certain type of food
Yes
447
1283
1.33 [1.13–1.57]
0.87 [0.73–1.05]
0.14
No
339
1295

Discussion

The prevalence of underweight among TB patients was 57.17%; the prevalence of underweight among TB free residents was 23.37%. This proportion was statistically significant (X2 565.8, P-value < 0.01). This finding indicates that 33.8% of excess malnutrition was observed as a result of TB. This is because TB infection increases the anabolic process and consumes additional energy [37], additionally, TB infection manifests with a reduction in appetite, nutrient malabsorption, finally increasing the risk of underweight [34].
The prevalence of anemia among TB patients was 88.52%; the prevalence of anemia among TB free residents was 51.78%. TB patients had a 36.74% excess burden of anemia as compared to the residents. This result was statistically significant at X2 656.7 p-value < 0.01. This is due to the effect of TB on red blood cell production like decreasing the erythrocyte lifespan, poor erythrocyte iron incorporation, and decreased sensitivity to our supply of erythropoietin [38].
The odds of malnutrition among extra-pulmonary TB patients were 47% higher than pulmonary TB patients. This finding was in line with finding from Nepal [39]. This is due to the reason that the diagnosis of extra-pulmonary TB is not easy as compared to pulmonary TB and patients were not early detected for the intervention [40]. The odds of malnutrition were 2.5 times higher in female TB patients than male TB patients. This finding agrees with finding from Ghana [20]. This is due to the reason that the severity of TB was more virulent in female [41]. Additionally, Male could have better access to food compared to the female who might need to prioritize their families, especially their children.
The odds of malnutrition among TB patients were 3.84 folds higher in the urban areas than the rural. This finding disagrees with finding from India [42]. This is due to the reason that most urban residents in Ethiopia were living in the overcrowded condition [43].
The odds of malnutrition were 7 folds higher among intestinal parasites infected TB patients than intestinal free TB patients. This finding agrees with finding from Butajira [44]. This is because intestinal parasites decrease the food intake, interfere with the absorption of nutrients and they share the host nutrients [45].
TB patients with problematic alcohol use had 1.52 fold higher risk of becoming malnourished than non-alcoholic TB patients. This finding agrees with research finding from Tanzania [46]. This is due to the reason that alcoholic patients eat poorly, had poor digestion, storage, use, and excretion of nutrients [47].
The odds of malnutrition among anemic TB patients were 3.23 folds higher than non-anemic TB patients. This finding agrees with finding from Brazil [48]. This is due to the effect of red blood cells in the transportation of nutrients and minerals [49].
The odds of malnutrition were 3.23 folds higher among TB patients whose age was greater than 25 years. This finding agrees with finding from Ghana [33]. This is due to the reason that the risks of co-morbid illness like non-communicable diseases were higher in old age [50].
The odds of malnutrition were 1.96 folds higher among HIV positive TB patients than HIV negative TB patients. This finding agrees with finding from Tanzania [46]. This is due to the reason that HIV positive patients were not economically productive so that they can’t get the access to the different variety of foods [51], HIV positive patients have a poor appetite, poor absorption of nutrients [52, 53].
The odds of malnutrition were 15.75 folds higher among TB patients with family size greater than 4. This finding agrees with finding from India [20]. This is because high family size decreases the household income leading to the low dietary intake of household members [54].
Believe in avoiding a certain type of foods (mostly animal products) increase the odds of malnutrition by 3.19 folds. This finding was in line with finding from Ghana [55]. This is due to the reason that patients will not take important nutrients due to their behavior of avoiding that type of food [56].
Family size and believe in avoiding a certain type of food were not the predictors of malnutrition among the tuberculosis-free residents, but these variables were the predictors of malnutrition among TB patients. These show that TB patients are very susceptible to malnutrition even the very distal reason for malnutrition in the community became a proximal reason for TB patients.
The limitation of the study might be related to the cross-sectional nature of the study, which makes difficult to find whether the exposure precedes the outcome. However, this limitation works only for modifiable variables thought time. Since we used patient interview methods, recall bias might occur, however, we included only newly diagnosed TB patients which significantly drop the recall bias.

Conclusion

A very high proportion of TB patients were malnourished. TB patients were highly susceptible to malnutrition and even a very distal factor for malnutrition became proximal for TB patients. The nutritional status of TB patients was affected by the site of infection, sex, residence, intestinal parasite infection, alcohol.

Recommendation

The DOTS for TB intervention should consider incorporating more nutritional support for the patients. Because a significant proportion of TB patients were malnourished, they can’t afford access to nutritionally rich foods and administering the anti-TB drugs alone will decrease the treatment success rate. Also, the guideline should consider iron supplementation and deworming as part of the TB treatment.

Acknowledgments

We would like to acknowledge the Amhara National Regional State Health Bureau for their unreserved efforts during the data collection process. We would also like to acknowledge the patient families for their good cooperation during the data collection phase. At last, but not least we would like to extend our gratitude to all organizations and people that support this research work.
Ethical clearance was obtained from the Bahir Dar University ethical review committee. Permission to conduct the study was also obtained from the Amhara national regional state health bureau. Written consent was obtained from each patient.
Not applicable.

Competing interests

The authors declare that they have no competing interests.
Open AccessThis article is distributed under the terms of the Creative Commons Attribution 4.0 International License (http://​creativecommons.​org/​licenses/​by/​4.​0/​), which permits unrestricted use, distribution, and reproduction in any medium, provided you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons license, and indicate if changes were made. The Creative Commons Public Domain Dedication waiver (http://​creativecommons.​org/​publicdomain/​zero/​1.​0/​) applies to the data made available in this article, unless otherwise stated.

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Metadaten
Titel
Nutritional status of tuberculosis patients, a comparative cross-sectional study
verfasst von
Berhanu Elfu Feleke
Teferi Elfu Feleke
Fantahun Biadglegne
Publikationsdatum
01.12.2019
Verlag
BioMed Central
Erschienen in
BMC Pulmonary Medicine / Ausgabe 1/2019
Elektronische ISSN: 1471-2466
DOI
https://doi.org/10.1186/s12890-019-0953-0

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