The Effect of Nutritional Lipid Supplementation on Serum Lipid Levels and Effectiveness of Antituber...

Iyamu O.A., Ugheoke J.E, Ozor M.O., Airhomwanbor K.O., Eidangbe A.P., Idehen I.C., Okhiai O., Akpede N

  Open Access OPEN ACCESS  Peer Reviewed PEER-REVIEWED

The Effect of Nutritional Lipid Supplementation on Serum Lipid Levels and Effectiveness of Antitubercular Chemotherapy

Iyamu O.A.1,, Ugheoke J.E2, Ozor M.O.3, Airhomwanbor K.O.4, Eidangbe A.P.5, Idehen I.C.6, Okhiai O.7, Akpede N8

1Department of Medical Biochemistry, College of Medicine, Ambrose Alli University, Ekpoma, Nigeria

2Department of Internal Medicine, Irrua Specialist Teaching Hospital, Irrua, Nigeria

3Department of Medical Physiology Ambrose Alli University, Ekpoma, Nigeria

4Department of Chemical Pathology, Ambrose Alli University, Ekpoma Nigeria

5Department of Medical Laboratory Science, College of Medicine, Ambrose Alli University, Ekpoma

6Department of Histopathology, College of Medicine, Ambrose Alli University, Ekpoma, Nigeria

7Department of Nursing Science, Ambrose Alli University, Ekpoma, Nigeria

8Department of Community Health, Irrua Specialist Teaching Hospital, Irrua Nigeria


The effect of serum lipid levels on the incidence and management of tuberculosis has recently been brought to the fore. The aim was to see the effect of nutritional supplementation on susceptibility of organisms of the mycobacterium tuberculosis complex to some known antitubercular drugs via effect on serum lipid levels. Blood samples were collected for baseline estimation of serum lipids from 250 tuberculosis patients who were then allocated into four groups including: those taking drugs for tuberculosis(antitubercular drugs) treatment only, those on antitubercular drugs and one boiled egg daily, those on antitubercular drugs and fish oil (1000 IU/day), and those on antitubercular drugs and both egg and fish oil daily, all for a three month duration, at the end of which blood samples were collected for estimation of serum triglycerides, total cholesterol (TC), high density lipoprotein (HDL-C), low density lipoprotein cholesterol (LDL-C), very low density lipoprotein cholesterol (VLDL-C), and Phospholipids, using appropriate methods. Results shows that though treatment with antitubercular drugs and supplementation with fish oil led to increases in serum lipid levels which were ab initio lower in tuberculosis patients than Healthy controls, supplementation with boiled egg led to a higher increase in serum lipid levels. Supplementation with fish oil also led to the greatest decreases in antitubercular drug resistance. It is thus suggested that supplementation with lipid rich foods in tuberculosis treatment will decrease anti tuberculosis drug resistance and help the global campaign on tuberculosis eradication.

Cite this article:

  • O.A., Iyamu, et al. "The Effect of Nutritional Lipid Supplementation on Serum Lipid Levels and Effectiveness of Antitubercular Chemotherapy." American Journal of Biomedical Research 2.2 (2014): 36-41.
  • O.A., I. , J.E, U. , M.O., O. , K.O., A. , A.P., E. , I.C., I. , O., O. , & N, A. (2014). The Effect of Nutritional Lipid Supplementation on Serum Lipid Levels and Effectiveness of Antitubercular Chemotherapy. American Journal of Biomedical Research, 2(2), 36-41.
  • O.A., Iyamu, Ugheoke J.E, Ozor M.O., Airhomwanbor K.O., Eidangbe A.P., Idehen I.C., Okhiai O., and Akpede N. "The Effect of Nutritional Lipid Supplementation on Serum Lipid Levels and Effectiveness of Antitubercular Chemotherapy." American Journal of Biomedical Research 2, no. 2 (2014): 36-41.

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1. Introduction

Tuberculosis, the great white scourge [1] and John Bunyan’s “Captain of all these men of death” [2, 3] is a worldwide bacterial infection, sometimes acute but more often chronic, caused mainly by infectious organisms of the mycobacterium tuberculosis complex [4]. Among communicable diseases, tuberculosis is the second leading cause of death worldwide, killing 2 million people each year [5] and the risk factors for the disease include overcrowding, malnutrition, smoking, depressed immunity etc [6].

According to the WHO report [7] there were an estimated 8.7 million new cases of Tuberculosis (13% infection with tuberculosis) and 1.4 million people died from the disease, including almost 1 million deaths among HIV – negative individuals and 430,000 among people who are HIV positive. The WHO global program on tuberculosis advocates for the use of directly observed treatment short course (DOTs) for all patients which involves giving isoniazid, rifampicin, pyrazinamide and ethambutol for two months, then Isoniazid and rifampicin only for further four months and the patient is considered cured at six months [8].

The disease remains an issue of great public health concern today despite the fact that effective treatment has been available for over fifty years [9]. Resistance of the tuberculosis bacilli to the antitubercular drugs is an important factor. Since 2006 emergence of extensively drug resistant TB has been an important issue and is considered a serious threat to global TB control [10].

According to WHO [11] multidrug resistant tuberculosis (MDR-TB) is a form of TB caused by bacteria that does not respond to at least Isoniazid and rifampicin, the two most powerful first line (or standard) anti-TB drugs; and extensively drug-resistant TB (XDR-TB) is a form of multidrug tuberculosis that respond to even fewer available medicine, including the most effective second-line anti-TB drugs.

The lipid content of the causative organisms may influence the pathophysiology, clinical characteristics, susceptibility to relevant drugs, and progression, of the disease. The high lipid content of the pathogen accounts for many of its clinical properties [12].

Serum level of total cholesterol have been found to be low in patients with pulmonary tuberculosis and a cholesterol rich diet might accelerate sterilization of the sputum in these patients [13]. HDL cholesterol has been shown to be low in patients with inflammatory diseases such as pneumonia and tuberculosis [14, 15] and a close relationship has been demonstrated between acute phase reactant and HDL cholesterol. Several authors [13, 15, 16] found serum lipid levels, especially of HDL, to be low in pulmonary TB when compared to the healthy group and emphasized that low level of HDL in TB might be related to acute phase proteins induced by medication during the inflammatory process, and this was thought to be due to possible lipoprotein oxidation. [17] According to Perez Guzman et al [18] low serum cholesterol may be a risk factor for the development of pulmonary TB.

Literature is relatively sparse on the relationship between blood serum lipids level and the incidence of antituberculoar drug resistance of organism of the mycobacterium tuberculosis complex. The aim of this work is thus to assess the levels of serum lipids including TC, TGs, HDL-C, LDL-C and VLDL-C and see the effects that changes in levels of some of these lipids will have on sensitivity of the organism to antitubercular drugs. The results may give useful hints on whether or not lipid-rich diet should be prescribed in the management of tuberculosis. This should be an important contribution to the global TB eradication campaign

2. Materials and Methods

2.1. Sample Population

Patients attending the government-owned Central Hospital Benin City and the privately owned Mount Gilead hospital were used for the study. Informed consent was sought and any patient disposed to participating in the study was asked to volunteer his sputum and blood sample. In all a total of 250 patients were used. Baseline blood samples were collected for the determination of serum lipid concentration of lipids including triglycerides, total cholesterol, very low density lipoproteins, low density lipoproteinss, high density lipoproteins, and phospholipids. The patients were then divided into four different groups of 65 patients each as follows:

Group 1 patients consisted of patients taking only antitubercular drugs according to the regular treatment short course (directly observed) regime.

Group 2 patients were asked to take egg daily along with their anti-tuberculosis drugs for a period of three months.

Group 3 patients were asked to take 1 capsule of fish oil (1000 iu daily) along with their daily anti-tuberculosis drugs for period of.

Group 4 patients were asked to take 1 capsule fish oil and an egg daily.

At the end of the three months blood and sputum samples were collected from patients in all the groups for determination of serum levels of the lipids, and culture and sensitivity testing respectively.

65 other apparently healthy subjects were used as control.

2.2. Inclusion Criteria

1. Only newly diagnosed tuberculosis patient yet to commence treatment were admitted to the study.

2. Those habitually on fish oil supplement were excluded.

3. Only stable patients were included.

4. A valid written informed consent was a prerequisite for enrolling a subject in the study.

5. Only those with recent evidence of disease- free chest Xray were included as controls.

2.3. Sputum Collection

Sputum samples were collected in sterile capped containers and were processed quickly. Where the samples could not be processed immediately the samples were stored at 4C till evening.

2.4. Blood Collection

From each patient about 5 mls of blood was collected by venipuncture of the antecubital vein and centrifuged to separate the serum. The serum was then stored at -20C. Determination of the concentration of the various lipids was then done.

2.5. Sputum Microscopy and Culture

Sputum samples were subjected to Ziehl Nielson’s acid fast staining to look for the presence of acid-fast bacilli. Samples were decontaminated by N-acetyl cystein Sodium hydroxide (NALC – NaOH) method, cultured in Loweinsten Jensen medium and identified according to the method of Canneti et al [19]. The cultures were then inoculated and incubated ay 37C for 6 weeks and examined every week to look for the presence of mycobacterial growth. Where growth on LJ medium was suspected ZN staining was applied as a confirmatory test for AFB. Positive growths were sub cultured on fresh LJ medium for further identification and sensitivity.

2.6. Biochemical identification

Identification of mycobacterial isolates after primary culture on LJ medium was done by growth rate, colony morphology, color, niacin production, nitrate production, catalase production at 68C [20].

2.7. Drug Susceptibility testing

This was done for first line antitubercular drugs including Rifampicin (2 ug/ml), Isoniazid (1 ug/ml), ethambutol (2 ug/ml) and Streptomycin (4 ug/ml) using the standard proportion method by Canneti et al [19]. In brief, growth from LJ positive slopes was suspended in normal saline and vortexed for 10-15 min. The suspension was allowed to settle for 15-20 min and compared with standard. Then 1/100 and 1/10,000 dilutions of the above suspension were compared in normal saline and used as inoculums. For each drug and for each dilution 100ul of the inoculum was used to inoculate two drug-free and two drug-containing LJ medium. Standard reference strain H37RV was used as control with each batch of sensitivity the MR isolates were further screened for XDR-TB by performing second line testing for Ofloxacin (2 ug/ml) and Karamycin (20 ug/ml) in liquid culture by BACTEC MERIT 590 [20].

Antibiotic resistance (%) was calculated on an antibiotic treated medium as:

2.8. Biochemical Assays
2.8.1. Total Cholesterol

This was estimated using the method of Fredrickson et al [22]. In principle the method involves the following reactions:

An already prepared kit (Quinica clinica applicada) was used, the contents included cholesterol oxidase, cholesterol esterase, peroxidase, n

on-reactive stabilizers, phosphate buffer, phenol, 2,5-Dichlorophenol and 4-aminoantipyrone. Storage was at 2-8C, protected from light. Three test tubes 1, 2, 3 were used and the content of the text tubes produced were

The contents of each was mixed well and incubated for 15 min at 37C and read at 546 nm wavelength. The content of cholesterol (mg/dl) was calculated as

The units in mg/dl can be converted to mmol/litre by multiplying with 0.0259.

2.8.2. HDL Cholesterol

This was estimated using the Dextran sulphate-mg2+ method of Gotto [23]. In principle LDC and VLDL (low and very low density lipoprotein) are precipitated from serum by the action of a polysaccharide in the presence of a divalent cation. The reagent include precipitant solution (Ref. 993885), Dextran Sulphate, Magnesium acetate and stabilizers. One drop of precipitant solution was added to 0.3 ml of sample, mixed, incubated at room temperature (20-25C) and centrifuged at 2000 g for 15 min. The supernatant was used. Three test tubes 1, 2, 3 were prepared with the following contents.

The content of each was well mixed, incubated for 5 min at 37C, and read at a wavelength of 546 nm.

The concentration of HDL – Cholesterol was calculated as

2.8.3. Triglycerides

This was done by the method of Trinder [24]. In principle the method involves

The reagent kits consisted of Freeze-dried enzymes (Re. 99026), Buffer solution (Ref. 999618), and standard (Ref. 996277) equivalent to 200 mg/dl (2.29 mMol/L). The working reagent consisted of 40 mMol/L buffer pH 7.5, 6 mMol/L 4-chlorophenol, 0.5 mmol/l 4-aminoantipyrine, 1 mMol/L ATP, 5 mMol/L mgCl2, 450 u/L Glycerol kinase, 1500 u/L Glycerol-3-Phosphate oxidase, 500 u/L peroxidase, 150,000 u/L lipases and non reactive stabilizers.

Three test tubes were prepared as follows

The content of each was mixed well, incubated for 5 min at 37C, and read at a wavelength of 546 nm.


Mg/dl may be converted to mmol/L as mg/dl x 0.01143 = mMol/L

2.8.4. Very Low Density Lipoprotein Cholesterol (VL DL-C).

This was calculated from triglycerides by using the Fridewald equation [25] as:

VL DL-C (mg/dl) = Triglycerides (mg/dl)/5

2.8.5. Low density lipoproetein-cholesterol (LDL-C)

The polyvinylsulphate (PVS) method of Bergmenyer [26] was used. In principle the LDL-Cholesterol is determined as the difference between total cholesterol and the cholesterol content of the supernatant after precipitation of LDL fraction by polyvinyl sulphate (PVS) in the presence of polyethylene-glycol monomethyl ether.

The reagents were precipitant solution (Ref 990610) and the kit containing 0.7 g/l of polyvinyl sulphate, 5.0 m Mol/L sodium EDTA, polyethylene glycol monomethyl ether (170 g/L), and stabilizers.

To prepare the supernatant 3 drops of precipitant solution was added to 0.2 ml of sample, mixed, incubated for 15 min at room temperature, centrifuged at 2000g for 15 min, and the supernatant used for estimation. Calculation was done as:

2.8.6. Phospholipids

The colorimetric method of Gomorris [27] was adopted. In principle the inorganic Phosphorus in serum reacts with Molybdic acid to form a Phosphomolybdic acid complex, which is reduced by ammonium iron (ii) Sulphate to Molybdenium blue, measured at 690 nm. The reagent kit was made up of Molybdate reagent, reductant (Ammonium iron II SulphateHexhydrate), redutant diluents (0.43N Sulphuric acid and surfactant) and a standard solution of Phosphorus (1.61 mMol/L). Three test tubes were prepared with the following content.

The content of each of the tubes was well mixed and allowed to stand for 10 min at 25C and read at 690 nM. The phospholipid content was calculated as

[Phospholipid] = [Pi] x 25

[Pi] = Absorbance of Sample x Absorbance of Standard

2.9. Statistical Analysis

The statistical program for the social sciences (SPSS) version 17.0 was used to determine the means of the serum concentration of the various classes of lipids.

3. Results

The results of the quantitative tests for the various lipid types and the observed incidence of antitubercular drug resistance for the various groups of patients are presented in the tables below.

Table 1. Values of various serum lipids for various experimental groups

Table 2. Incidence of resistance to antituberculosis drugs by organisms of the Mycobacterium tuberculosis complex (%)


Baseline: All subjects at diagnosis before any form of therapeutic intervention.

Group 1: Tuberculosis patients after 3 months treatment with standard antitubercular drugs (first and second line) only.

Group 2: Tuberculosis patients after 3 months of treatment with standard anti tuberculosis drugs (first and second line) and daily supplementation with one boiled egg.

Group 3: Tuberculosis patient after 3 months treatment with standard anti tubercular drugs (first and second line) and daily supplementation with commercial fish oil preparation.

Group 4: Tuberculosis patients after 3 months treatment with standard anti tuberculosis drugs (first and second line) and daily supplementation with both boiled egg (one daily) and first oil (1000 iu daily).

4. Discussion

The Global eradication of tuberculosis has been the target of concerned organizations largely coordinated by the WHO. Despite the fact that effective drugs have been available for years millions of cases of the disease still abound. The emerging problem of the drug-resistant strains of the mycobacterium tuberculosis complex has also contributed to the difficulty of TB eradication. Nutritional considerations have not been so much given attention as a potential way out of the debacle. The role of good nutrition in any disease condition cannot be overemphasized especially as it relates to the role of nutrition in immunity.

The importance of dietary lipids in the management of tuberculosis has only recently become a subject of discourse within the global medical community. The contribution of several authors [13, 15, 16, 18] have been mentioned. From Table 1 it can be seen that at baseline the serum levels of the lipids, apart from the phospholipids, are lower than the levels of healthy (control) subjects. Treatment with antitubercular drugs (group 2 patients) however raised the levels of the serum lipids. It is observed that egg supplementation (group 2) significantly increased the serum levels of the plasma lipids (Group 2). There was a non-statically significant increase brought about by fish oil supplementation (group 3) but the increase brought about by both egg and fish oil supplementation did not appear to be additive (group 4).

From Table 2 it can be seen that there were statistically significant differences among the levels of anti TB drug resistance among the group. This was seen for all the first and second line drugs used. The incidence of resistance was most reduced in the group in which members had egg supplementation. Also it was observed that only fish oil supplementation did not significantly reduce incidence of resistance and that combined egg and fish oil supplementation produced an effect resembling that with only egg supplementation.

The values of lipid profile parameters derived from the serum of healthy controls fall within normal levels according to some earlier studies by several independent authors [28, 29, 30]. The values of cholesterol (all varieties) were found to be lower in newly diagnosed tuberculosis patients yet to commence antitubercular medication. Cholesterol is the most studied lipid in this direction and the works of various authors have found that low cholesterol in the serum of tuberculosis patients when compared to healthy subjects and household contacts. Some even proposed that hypocholesterolemia is a risk factor for tuberculosis [13, 15, 16, 18]. The finding that treatment with antitubercular drugs significant increased the lipid profile is consistent with the findings by Saraswatty and Shynale-Der [31] even though it contrasts Porter et al who found no effect on serum cholesterol but a seasonal effect on serum triglycerides. This suggest that a decreased lipid profile is part of the pathophysiological mechanism of tuberculosis infection.

Omega 3 fatty acids are the principal lipid component of fish oil. We found some statistically insignificant increases in the lipid profile. This is at variance with the work of Stark et al [33] which found a 26% lower serum TG concentration and a 28% lower overall ratio of serum TG to HDL cholesterol. Lipid profile was found to be increased by boiled egg supplementation. This agrees with Mayurasakorn et al [33] who found that a 12-week egg consumption significantly increased serum total cholesterol and concluded that in the majority of healthy adults, an addition of one egg per day to normal fat diet could raise HDL-C level and decrease the ratio of total cholesterol to HDL-C and this might benefit blood cholesterol even though Porter et al did not find any such effect. Normal to high blood cholesterol, as against hypocholesterolamia is not commonly associated with the incidence of tuberculosis.

The lower incidence of antitubercular drug resistance with higher blood cholesterol in patients with egg supplementation suggest that factors which may help protect against hypocholesterolarmia should be adopted in tuberculosis management. We thus suggest that supplementation with cholesterol-rich preparations be an accompaniment of antitubercular drugs in TB management. Unfortunately the factor of age was not considered in this study and so further studies are needed to balance the beneficial effect of high serum cholesterol in TB management and protection against the risk of TB with its detrimental effects on cardiovascular health especially in older patients.


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