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Serum protein gamma-glutamyl hydrolase, Ig gamma-3 chain C region, and haptoglobin are associated with the syndromes of pulmonary tuberculosis in traditional Chinese medicine
© Jiang et al. 2015
Received: 25 August 2014
Accepted: 21 May 2015
Published: 22 July 2015
Traditional Chinese Medicine (TCM) has been applied in treating tuberculosis (TB) based on the TCM syndromes with the effects of inhibiting Mycobacterium, strengthening the body immune system, and reducing the pulmonary toxicity. We used bioinformatic methods to study the clinical and pathological characteristics of pulmonary TB patients with TCM syndromes. Isobaric tags for relative and absolute quantification - coupled two dimensional liquid chromatography-tandem mass spectrometry (iTRAQ-2DLC-MS/MS) methods were applied to screen differentially expressed serum proteins.
Pulmonary TB cases were divided into four distinctive TCM syndromes: pulmonary Yin deficiency (PYD) syndrome, hyperactivity of fire due to Yin deficiency (HFYD) syndrome, deficiency of Qi and Yin (DQY) syndrome, and deficiency of Yin and Yang (DYY) syndrome. The serum samples from 214 pulmonary TB patients were collected, and the clinical and pathological data was analyzed by using iTRAQ-2DLC-MS/MS. Finally, the differentially expressed proteins were screened and tested by ELISA. Only 5 patients with DYY syndrome were recruited in 3 years, which were not enough for further research.
The DQY cases had higher erythrocyte sedimentation rate (ESR) compared to the PYD and HFYD cases (P = 0.0178). 94.44 % (12 PYD, 18 HFYD, and 4 DQY before anti-TB treatment) of 36 treated TB cases were transformed to PYD accompanied with the reduction of ESR and absorption of pulmonary lesions. A total of 39 differentially expressed proteins (ratios of >1.3 or <0.75) were found among the three TCM syndromes. Proteomic studies revealed that gamma-glutamyl hydrolase (GGH), Ig gamma-3 chain C region (IGHG3), and haptoglobin (HPT) were specifically over-expressed in PYD (P < 0.01), HFYD (P < 0.001), and DQY cases (P < 0.01), respectively. Furthermore, GGH was significantly higher in PYD cases compared to the HFYD and DQY cases (P < 0.01, P < 0.001, respectively), whereas IGHG3 was significantly higher in HFYD cases than PYD and DQY cases (P < 0.001, P < 0.01, respectively).
The results suggest that TCM syndromes are significantly correlated with the pulmonary lesions and ESR. GGH was associated with folate metabolism in PYD cases, IGHG3 was linked to the control of Mycobacterium infection in HFYD patients, and HPT was involved in hypoxia in DQY patients. The present study provides new biological basis to understand the pathological changes and proteomic differences of TB syndromes.
KeywordsTraditional Chinese Medicine Syndrome Pathology Erythrocyte sedimentation rate Serum protein Tuberculosis
Tuberculosis (TB) ranks as the second leading cause of death from an infectious disease, just after the AIDS. There were 8.6 million new TB cases and 1.3 million deaths including 0.3 million deaths from HIV-associated TB in 2012, globally . The routine Western medicine for TB treatment has to last at least for 6 months, and may lead to drug-resistant TB  and severe hepatic side effect [3–5]. Traditional Chinese Medicine (TCM) has been applied in treating TB  based on the effects of inhibiting Mycobacterium, strengthening the body immune system, and reducing the pulmonary toxicity and drug-resistant. Chinese herbs such as Gentiana rhodantha Franch , Astragalus membranaceus , and Radix Paeoniae Rubra (Chishao)  have been described to be medicinally used for the treatment of TB. Other Chinese herbs such as Radix Ranunculi Ternati, Radix Sophorae Flavescentis, Prunella Vulgaris L. and Stellera Chamaejasme L. have been demonstrated to be effective in treating multi-drug resistant (MDR)-TB [6, 10]. These Chinese herbal medicines have either heat clearing and detoxifying or nourishing Yin and reducing fire effects. Biological researches revealed that Astragalus membranaceus extracts can strongly promote the phagocytosis of Mycobacterium . Radix Paeoniae Rubra extracts can inhibit interleukin (IL)-10, and increase IL-8 in BCG-activated primary human blood macrophages . IL-8 can attract T lymphocytes and neutrophils to the infection sites promoting the formation of granuloma at the early stage of Mycobacterium infection, and activating bactericidal response from neutrophils [11–13]. IL-10 is an anti-inflammatory cytokine produced by macrophages and T-cells during Mycobacterium infection . Mycobacterium evades the host immunity with the help of IL-10 [15–17]. Radix Paeoniae Rubra extracts has been shown to inhibit the expression of IL-10, and can reduce the reactivation of TB and higher mycobacterial burden , thereby reducing the susceptibility to Mycobacterium infection . However, the Radix Sophorae Flavescentis, Radix Ranunculi Ternati, Stellera Chamaejasme L. and Prunella Vulgaris L. extracts enhance cell-mediated immunity in multidrug resistant (MDR)-TB . All these herbs can inhibit Mycobacterium and strengthen the body immune system.
The herbs in a TCM prescription for patients depend on the TCM syndrome differentiation . Choosing suitable herbs and dosages according to the TCM syndromes differentiation would also improve the efficacy and reduce the toxic effects of anti-TB drugs [21, 22]. TCM syndrome, also called Zheng, is a temporary state at a period of time defined by symptoms, pulse feelings and tongue appearance . The same disease can be classified into different syndromes. Differing from the Western medicine, the diagnosis of TCM syndrome is based on differentiation/classification . TCM syndrome is assessed by inspection, auscultation, olfaction, interrogation, and palpation [20, 24]. Pulmonary TB patients were mainly divided into four TCM syndromes: pulmonary Yin deficiency (PYD) syndrome, hyperactivity of fire due to Yin deficiency (HFYD) syndrome, deficiency of Qi and Yin (DQY) syndrome, and deficiency of Yin and Yang (DYY) syndrome . Yin-Yang (two interdependent, opposite, complementary, and exchangeable aspects of nature) have been employed by ancient Chinese scholars to analyze pulmonary TB . Yin often refers to the material aspects of the organism, and Yang refers to function. In addition, Qi is another vital substance in TCM which has the function of promoting blood circulation in the body .
Disease occurs when the balance or harmony of Yin – Yang is disturbed . PYD is the first stage of pulmonary TB, and the patients who have PYD syndrome can be characterized by Yin deficiency signs such as thirst, tussiculation, mild night sweat, and feverishness in palms and soles [25, 26]. HFYD is the second stage of pulmonary TB, and the patients who have HFYD syndrome can be characterized by Yin deficiency and fire hyperactivity signs such as steaming sensation in the bone, dysphoria with feverish sensation in chest, palms and soles [25, 26]. DQY is the third stage of pulmonary TB, and the patients are characterized by Yin and Qi deficiency signs such as weak and pale look. DYY is the last stage of the disease, and the patients who have DYY syndrome are almost in dead condition [25, 26].
However, criticism and skepticism was raised because the principles of TCM are rooted from ancient Chinese philosophy (Confucianism and Taoism), and syndrome differentiation depends heavily on subjective observation, clinical experience, and knowledge of practitioners with the lack of scientific researches and objective tests . The current study employed bioinformatic methods (one-way ANOVA and χ2 test) to investigate clinical and pathological changes of the TCM syndromes of pulmonary TB, and to analyze the syndrome transformation after treatment. Isobaric tags for relative and absolute quantification (iTRAQ) - coupled with two dimensional liquid chromatography-tandem mass spectrometry (2DLC-MS/MS) was used to screen the specifically expressed serum proteins of pulmonary TB patients with distinctive TCM syndromes.
Our study is the first to analyze the pathological characteristics and proteomic differences of pulmonary TB in different TCM syndromes. We also provide solid pathological background and biological evidence for the TCM diagnosis.
The present study was approved by the Medical Ethics Committee of Zhejiang University (China) and written informed consent was obtained from all the blood donors.
Patients and control subjects
Characteristics of TB cases, treated-TB cases and healthy controls
(N = 214)
(N = 36)
(N = 62)
Age, Age range (Mean ± SD)
18-75 (45.11 ± 15.08)
20-67 (44.33 ± 13.84)
22 − 65 (43.19 ± 8.84)
Gender (female: male)
Abnormal chest radiograph, no. (%)
Positive sputum smears, no. (%)
BCG vaccination, no. (%)
Smoking, no. (%)
HIV-negative, no. (%)
All pre-treated TB patients meet one of the following diagnostic criteria: 1. Positive sputum culture or smear; 2. Typical active TB findings on Chest X-ray and CT scan; 3. Pulmonary pathological lesions diagnosed as TB. Meanwhile, subjects with extra-pulmonary TB, diabetes, hepatitis B, AIDS and other diseases as well as immune inhibitor users were eliminated from the study. According to the “Standard of disease diagnosis and curative effect of Traditional Chinese Medicine”, all the cases were divided into PYD, HFYD, DQY, and DYY syndromes.
Clinical and pathological analysis
Characteristics of TB cases with PYD, HFYD and DQY Syndromes
PYD (N = 71)
HFYD (N = 79)
DQY (N = 64)
Age, Age range (Mean ± SD)
18-75 (43.36 ± 14.62)
18-75 (45.18 ± 15.08)
18-75 (46.78 ± 14.44)
Gender (female: male)
Positive sputum smears, no. (%)
Tuberculin skin test (>10 mm), no. (%)
Smoking, no. (%)
BCG vaccination, no. (%)
FIB(g/L) (Mean ± SD)
4.18 ± 1.11
3.82 ± 1.28
3.70 ± 1.15
PT(s) (Mean ± SD)
13.47 ± 1.45
13.15 ± 1.32
13.32 ± 1.27
APTT(s) (Mean ± SD)
31.20 ± 4.39
30.44 ± 4.60
30.27 ± 4.04
TT(s) (Mean ± SD)
14.42 ± 1.32
14.47 ± 1.13
14.78 ± 1.36
Blood glucose (mmol/L) (Mean ± SD)
4.90 ± 0.64
5.04 ± 0.55
5.11 ± 1.74
ESR (mm/h) (Mean ± SD)
11.15 ± 4.85
12.06 ± 5.91
13.72 ± 6.72
11.63 ± 5.44
13.72 ± 6.72
Degenerative lesions: cavity, caseous necrosis
Exudation and other inflammatory lesions
Serum collection and abundant protein depletion
Serum samples were collected in the vacuum tube without anticoagulation and centrifuged at 3000 rpm for 10 min at 4 °C. 10 serum samples from PYD, HFYD, DQY cases and healthy controls were mixed with the kit column (Agilent multiple affinity removal column LC column-14, the human MARS, Agilent, USA) to remove 14 highly abundant proteins, including albumin, IgG, antitrypsin, IgA, transferring, haptoglobin, fibrinogen, alpha 2-macroglobulin, alpha1-acid glycoprotein, IgM, apolipoprotein AI, apolipoprotein AII, complement C3, and transthyretin.
Protein enzymolysis and iTRAQ labeling
The specimens were isotope-labeled according to the iTRAQ kit instructions (Applied Biosystem, Foster city, CA, USA). 100 μg of the samples from each group was mixed with pre-cooled acetone, and the pellet was dissolved with dissolution buffer and 1 % SDS. The reduced samples were alkylated and digested by trypsin (Sigma, St. Louis, MO, USA) overnight at 37 °C. Then the digested samples were iTRAQ labeled. The 113, 118, 119 and 121 isobaric tags were used to label the healthy controls, PYD, HFYD and DQY samples, respectively for 1 h at room temperature. The samples were obtained by vacuum centrifugal concentration (Christ RVC 2 to 25, Christ, Osterode, Germany) .
The labeled samples were processed by Sep-Pak Vac C18 (Waters, Massachusetts, MA, USA) to remove the labeling reagent and salt. The labeled peptides were separated with strong cation exchange liquid chromatography column (2.1 mm × 100 mm, 5 μm, 200 A, Polysulfoethyl column, SCX) (Nest Group, Southborough, MA, USA). Buffer A (10 mM KH2PO4, 25 % ACN, PH2.6) and a linear gradient 0 %-80 % of buffer B (10 mM KH2PO4, 350 mM KCL, 25 % CAN, pH 2.6) was used to separate the samples at the flow rate of 200 μL /min for an hour . A total of ten gradient fractions were collected for vacuum centrifugal concentration based on the peak type and time.
The samples were dissolved and loaded into the ZORBAX 300SB-C18 column (5 μm, 300 Å, 0.1 × 150 mm, Microm, Auburn, CA, USA). Each fraction was analyzed by Triple TOF 5600 system (Applied Biosystems) twice and exported as run 1, and run 2. The mass spectra were acquired by using positive ion mode and information-dependent acquisition mode (IDA). In IDA mode, survey scans were acquired between 400 to 1500 m/z, with up to 20 of the most intense multiply charged ions being sequentially chosen for MS/MS analysis. The mass range of product ion spectra was from 100 to 2000 m/z. The reporting iTRAQ ion intensities (113, 118, 119, and 121 m/z) were sufficiently enhanced for quantification.
Proteins identification, quantification and bioinformatics analysis
Proteins identified and relatively quantified were performed by Protein Pilot software version 4.2 beta (Applied Biosystems) and International Protein Index database (version 3.87, HUMAN). We set the unused ProtScore >1.3 as cutoff to minimize false positives. More than 2 peptides with the 95 % confidence were chosen for quantification. Peptide quantification was also conducted by Pro Group algorithm to calculate P value, error factor, the reporter peak area, and to remove redundant hits. When the P value <0.05 and the error factor <2, the data was reliable . Functional annotation and classification of proteins was analyzed by gene ontology (GO) database. Signaling pathways were conducted by using KEGG database. The protein-protein interaction was carried out by STRING software (http://string-db.org/). The fold changes ratios of >1.3 (up-regulated proteins) or <0.75 (down-regulated proteins) were chosen for further research.
Differential proteins were measured in 154 TB cases (44 PYD cases, 55 HFYD cases, 55 DQY cases) and 62 healthy controls (randomly chosen) by ELISA. Human Haptoglobin ELISA kit (Abcam, London, England; the dilution was 1:2000), human IGHG3 ELISA kit (CUSABIO Biotech, Wuhan, Hubei, China; the dilution factor was 1:5000), and human GGH ELISA kit (CUSABIO Biotech, Wuhan, Hubei, China; the sample dilution was 1) were used to perform experiment in duplicates in accordance with the manufacturer’s instructions. The results were further analyzed by one-way ANOVA following Tukey post-hoc test. The study samples provided at least 83.57 % power to identify significant differences between TCM syndromes at a statistical support level of α = 0.05 with an effect size of 0.6 applying a two tails model calculated by Gpower3.0.5.
Clinical and pathological analysis of Pulmonary TB cases
TCM transformation of TB cases
One-way ANOVA analysis of the 36 treated pulmonary TB cases revealed that after two to six months of treatment, 94.44 % (12 PYD, 18 HFYD, and 4 DQY before anti-TB treatment) of 36 treated TB cases were transformed to PYD accompanied with the reduction of ESR and absorption of pulmonary lesions. The ESR value was 7.70 ± 3.45, significantly lower than the ESR value of pre-treated cases (P < 0.0001), and the pulmonary cavity lesions were apparently absorbed and closed. However, 5.56 % of the cases (2 cases) were transformed into HFYD syndrome. The lesions were absorbed, but the pulmonary cavity lesions were not closed.
Proteins identification and relative quantification
Verification of differentially expressed proteins by ELISA
We have studied the serum proteomics of TB cases with PYD, HFYD and DQY syndromes by SELDI–TOF MS combined with weak cation exchange (WCX) magnetic beads. However, a large amount of proteins cannot be screened and only one identified protein was acquired finally due to the limitation of the technology. The clinical and pathological analysis of PYD, HFYD and DQY cases was not sufficient . We have also explored the specifically expressed serum proteins in TB patients by iTRAQ-2DLC-MS/MS, and found serum protein S100A9, SOD3, and MMP9 as new potential diagnostic biomarkers for pulmonary TB . We applied the iTRAQ-2DLC-MS/MS technique to screen specifically expressed serum proteins in TB patients with distinctive TCM syndromes, and performed clinical and pathological analysis of specifically expressed proteins by bioinformatic methods.
Pulmonary TB occurs because of the disturbed balance between Yin and Yang . Patients infected with Mycobacterium had Yin deficiency syndrome. With the progress of the disease, patients had severe imbalance in Yin-Yang, gradually leading to PYD and HFYD syndromes, and later on to the DQY syndrome. For those reaching the final stage of DYY syndrome, the patients were almost in dead condition.
Clinical and pathological analysis
The clinical and pathological analysis showed that PYD cases basically had hyperplastic lesions, suggesting mild pathological changes. There were significantly more degenerative pulmonary lesions in the HFYD cases, compared with PYD and DQY cases. Degenerative lesions were due to the strong delayed-type hypersensitivity (DTH), indicating allergic reaction . However, DQY cases have multiple lesions, often accompanied by a variety of pathological changes, including miliary lesions that was much higher than the PYD and HFYD cases (P = 0.0013), suggesting severe TB.
The ESR value in the TB cases showed an interesting phenomenon: it was significantly higher in DQY patients, compared to the PYD and HFYD patients (P = 0.0178, Table 2, Fig. 2d). ESR could reflect TB severity. The higher the ESR value, the severe the pathological stages of TB. In the late pulmonary TB stages, ESR reached the highest [33, 34]. So, the DQY syndrome belongs to the most severe stage with highest ESR value among the syndromes. Thus, it is believed that TCM syndromes of TB may be closely related to the ESR and pathological lesions.
The results revealed that 94.44 % of 36 treated TB cases (12 PYD, 18 HFYD, and 4 DQY before anti-TB treatment) were transformed into PYD with obvious TB lesion absorption, closing of the pulmonary cavity lesions, negative sputum smear/culture and improved physical signs, and significantly reduced ESR, compared with the pre-treatment cases. Only 5.56 % of the cases (2 cases) showed HFYD syndrome, and the pulmonary cavity remained unclosed. The ESR reduced, but with no statistical significance due to the few case numbers. All the data pointed to the fact that the treatment changed the TCM syndromes to PYD with improved signs and symptoms.
The current study employed healthy donors with balanced Yin-Yang as the controls. Serum proteomics was investigated in the three TCM syndromes by iTRAQ-2DLC-MS/MS. The results showed that TCM syndromes were mostly associated with GGH, IGHG3, and HPT proteins. GGH was specifically over-expressed in the PYD syndrome involved in the metabolism; IGHG3 was significantly over-expressed in the HFYD syndrome for the immune status; and HPT was specifically over-expressed in the DQY syndrome participating in the biological regulations. We suggested that all these proteins may be involved in the TB pathogenesis with close correlation to the TCM syndromes. ELISA analysis supported the serum proteomics findings.
GGH was associated with PYD syndrome of Pulmonary TB
The results showed that GGH in the PYD cases was significantly higher than the healthy controls. GGH could yield pteroyl-alpha- glutamate (folate) and free glutamate through hydrolysis, and exert an important role in the bioavailability of dietary pteroylpolyglutamates and in the metabolism of pteroylpolyglutamates and antifolates [35, 36]. The change in serum GGH concentration could also change the intracellular or extracellular folate concentration . Folate is necessary for the survival and toxicity of Mycobacterium. It is also an important cofactor for DNA synthesis and repair during Mycobacterium proliferation [38, 39]. Mycobacterium must synthesize folate themselves, because they could not use the exogenous folate directly. The host could provide materials for the folate synthesis. So, we speculate that GGH may affect the folic acid intake of Mycobacterium by affecting the body’s folate metabolism. In PYD cases, when GGH increased, the body could make better use of the folate from food. Excessive folate can produce more glutamate and para-aminobengoic acid as synthesizing material for the folate synthesis. It was also found that GGH in PYD cases was much higher than in the HFYD and DQY cases, indicating that folate was most effectively used in PYD cases. Thus, serum GGH may be associated with folic acid intake of Mycobacterium in PYD patients.
IGHG3 was associated with HFYD syndrome of Pulmonary TB
In this study, IGHG3 in the HFYD cases was significantly higher than the healthy controls. IGHG3 could bind with IgG Fc receptor (FcγR) of neutrophilic granulocyte and macrophages, thereby promoting phagocytosis and controlling the infection . IGHG3 could also combine with FcγRI on the surface of dendritic cells with high affinity, and enhance the antigen presentation function of dendritic cells to T lymphocyte [41–43]. Elevated serum IGHG3, on the one hand could combine with FcγR, mediate the macrophage phagocytosis, and control the infection. On the other hand, increased IGHG3 could be combined with FcγRI so as to increase the antigen presenting function of dendritic cells. It was also observed that IGHG3 in the HFYD cases were much higher than the PYD and DQY cases. The current results suggested that IGHG3 may be associated with the control of Mycobacterium infection in HFYD patients. In clinical practice, HFYD has obvious symptoms of internal fire due to Yin deficiency, presenting fever, while in PYD and DQY cases, fever signs were not so evident. The relationship between IGHG3 and the internal fire of HFYD syndrome need further research.
HPT was associated with DQY syndrome of Pulmonary TB
In this experiment, HPT in the DQY cases was significantly higher than the healthy controls. HPT could capture and combine with free hemoglobin, while hemoglobin could carry oxygen from the lung surface to the aerobic tissues. In clinical practice DQY patients have obvious symptoms of hypoxia, such us cyanosis. Hypoxia is sequelae of TB and concomitant pulmonary diseases . TB may even lead to respiratory distress syndrome with more severe hypoxia [45, 46]. When the tissue is in a state of hypoxia, it will increase the oxygen demand and change the hemoglobin by configuration so as to improve the oxygen usage . But increased hemoglobin could promote the production of oxygen radicals, leading to oxidative damage and cell death [48–50]. HPT can combine with hemoglobin so as to stop the production of oxygen radicals in the blood and its toxic effects [51, 52]. While in PYD and HFYD cases, its value was between the healthy controls and DQY cases. The results were in correspondence with the clinical syndromes and TCM theories of TB cases. Increased HPT may indicate hypoxic condition and was closely associated with the DQY syndrome in TB patients.
In order to amplify the value of our study, a larger number of TB patients with DYY syndrome should be further tested. Further studies with treated patients are needed to confirm the importance of these results as potential biomarkers of PYD, HFYD and DQY syndromes.
To sum up, TCM syndromes classification in pulmonary TB cases were closely related to the clinical and pathological changes and ESR. After treatment, most cases were transformed into PYD syndrome. Serum proteins such as GGH, IGHG3 and HPT were specifically over-expressed in PYD, HFYD, and DQY patients, respectively. GGH was associated with folate metabolism in PYD patients, and IGHG3 was linked to the control of Mycobacterium infection in HFYD patients. However, HPT was involved in hypoxia in DQY patients. The results provide clinical evidence and experimental basis for TCM syndromes of pulmonary TB. In addition, the data laid biological basis for the TCM syndromes classification, especially, providing an important clue for TCM differential diagnosis with improved and important scientific significance.
We would like to thank all the blood donors from the Sixth Hospital of Shaoxing (Shaoxing, China) and Zhejiang Hospital (Zhejiang, China), and Meng Li, Xiao-Chen Wan in the Zhejiang Hospital for collecting blood samples for us, and Jun-Liang Jiang for transporting blood samples from 70 km away many times. This work was supported by grants from National Special Sci-Tech Projects (No. 2012ZX10005001-006), National Basic Research Program of China (No.2014CB543002), and National Natural Science Foundation of China (No.81273882). The funders had no role in study design, data collection and analysis, decision to publish, or preparation of the manuscript.
- Zumla A, George A, Sharma V, Herbert N, Baroness Masham of I. WHO’s 2013 global report on tuberculosis: successes, threats, and opportunities. Lancet. 2013;382:1765–7.View ArticlePubMedGoogle Scholar
- Tripathi RP, Bisht SS, Ajay A, Sharma A, Misra M, Gupt MP. Developments in chemical approaches to treat tuberculosis in the last decade. Curr Med Chem. 2012;19:488–517.View ArticlePubMedGoogle Scholar
- Burman WJ, Reves RR. Hepatotoxicity from rifampin plus pyrazinamide: lessons for policymakers and messages for care providers. Am J Respir Crit Care Med. 2001;164:1112–3.View ArticlePubMedGoogle Scholar
- Tsuyuguchi K, Wada M. Management of adverse effects with antituberculosis chemotherapy [in Japanese]. Kekkaku. 2011;86:87–99.PubMedGoogle Scholar
- Ichai P, Saliba F, Antoun F, Azoulay D, Sebagh M, Antonini TM, et al. Acute liver failure due to antitubercular therapy: Strategy for antitubercular treatment before and after liver transplantation. Liver Transpl. 2010;16:1136–46.View ArticlePubMedGoogle Scholar
- Wang M, Guan X, Chi Y, Robinson N, Liu JP. Chinese herbal medicine as adjuvant treatment to chemotherapy for multidrug-resistant tuberculosis (MDR-TB): a systematic review of randomised clinical trials. Tuberculosis (Edinb). 2015. doi:10.1016/j.tube.2015.03.003.Google Scholar
- Xu M, Zhang M, Wang D, Yang CR, Zhang YJ. Phenolic compounds from the whole plants of Gentiana rhodantha (Gentianaceae). Chem Biodivers. 2011;8:1891–900.View ArticlePubMedGoogle Scholar
- Xu HD, You CG, Zhang RL, Gao P, Wang ZR. Effects of Astragalus polysaccharides and astragalosides on the phagocytosis of Mycobacterium tuberculosis by macrophages. J Int Med Res. 2007;35:84–90.View ArticlePubMedGoogle Scholar
- Wang L, Yang CL, Or TC, Chen G, Zhou J, Li JC, et al. Differential effects of Radix Paeoniae Rubra (Chishao) on cytokine and chemokine expression inducible by mycobacteria. Chin Med. 2011;6:14.View ArticlePubMedPubMed CentralGoogle Scholar
- Lu J, Ye S, Qin R, Deng Y, Li CP. Effect of Chinese herbal medicine extracts on cell-mediated immunity in a rat model of tuberculosis induced by multiple drug-resistant bacilli. Mol Med Rep. 2013;8:227–32.PubMedGoogle Scholar
- Pace E, Gjomarkaj M, Melis M, Profita M, Spatafora M, Vignola AM, et al. Interleukin-8 induces lymphocyte chemotaxis into the pleural space. Role of pleural macrophages. Am J Respir Crit Care Med. 1999;159:1592–9.View ArticlePubMedGoogle Scholar
- Mukaida N. Pathophysiological roles of interleukin-8/CXCL8 in pulmonary diseases. Am J Physiol Lung Cell Mol Physiol. 2003;284:L566–577.View ArticlePubMedGoogle Scholar
- Godaly G, Young DB. Mycobacterium bovis bacille Calmette Guerin infection of human neutrophils induces CXCL8 secretion by MyD88-dependent TLR2 and TLR4 activation. Cell Microbiol. 2005;7:591–601.View ArticlePubMedGoogle Scholar
- Cheung BK, Lee DC, Li JC, Lau YL, Lau AS. A role for double-stranded RNA-activated protein kinase PKR in Mycobacterium-induced cytokine expression. J Immunol. 2005;175:7218–25.View ArticlePubMedGoogle Scholar
- Cunha FQ, Moncada S, Liew FY. Interleukin-10 (IL-10) inhibits the induction of nitric oxide synthase by interferon-gamma in murine macrophages. Biochem Biophys Res Commun. 1992;182:1155–9.View ArticlePubMedGoogle Scholar
- Jacobs M, Brown N, Allie N, Gulert R, Ryffel B. Increased resistance to mycobacterial infection in the absence of interleukin-10. Immunology. 2000;100:494–501.View ArticlePubMedPubMed CentralGoogle Scholar
- Balcewicz-Sablinska MK, Keane J, Kornfeld H, Remold HG. Pathogenic Mycobacterium tuberculosis evades apoptosis of host macrophages by release of TNF-R2, resulting in inactivation of TNF-alpha. J Immunol. 1998;161:2636–41.PubMedGoogle Scholar
- Boussiotis VA, Tsai EY, Yunis EJ, Thim S, Delgado JC, Dascher CC, et al. IL-10-producing T cells suppress immune responses in anergic tuberculosis patients. J Clin Invest. 2000;105:1317–25.View ArticlePubMedPubMed CentralGoogle Scholar
- Turner J, Gonzalez-Juarrero M, Ellis DL, Basaraba RJ, Kipnis A, Orme IM, et al. In vivo IL-10 production reactivates chronic pulmonary tuberculosis in C57BL/6 mice. J Immunol. 2002;169:6343–51.View ArticlePubMedGoogle Scholar
- Cheung F. TCM: Made in China. Nature. 2011;480:S82–3.View ArticlePubMedGoogle Scholar
- Lin C, Zhu X, Deng K. Clinical researches on herbal Feifu – decoction therapy on drug-resistant Pulmonary Tuberculosis [in Chinese]. Chin Arch Tradit Chin Med. 2008;26:2472–3.Google Scholar
- Liu Y, He F. Chinese medicine in the treatment of tuberculosis of the status and prospect [in Chinese]. Guiding J Tradit Chin Med Pharmacy. 2010;16:100–2.Google Scholar
- Kanawong R, Obafemi-Ajayi T, Ma T, Xu D, Li S, Duan Y. Automated tongue feature extraction for ZHENG classification in traditional Chinese medicine. Evid Based Complement Alternat Med. 2012;2012:912852.View ArticlePubMedPubMed CentralGoogle Scholar
- Tang JL, Liu BY, Ma KW. Traditional Chinese medicine. Lancet. 2008;372:1938–40.View ArticlePubMedGoogle Scholar
- Wang SS, Zhou J, Zhang YF, Wang L, Feng X, Wang Y. Study on the Rule of TCM Syndromes in Pulmonary Tuberculosis [in Chinese]. World J Integ Tradit Western Med. 2014;9:498–500.Google Scholar
- Wang SS, Zhou J, D F, Zhou JM. Research on TCM law of tuberculosis and related to objects indicators [in Chinese]. Clin J Chin Med. 2011;3:13–4.Google Scholar
- Yang LS, Xu XE, Liu XP, Jin H, Chen ZQ, Liu XH, et al. iTRAQ-based quantitative proteomic analysis for identification of oligodendroglioma biomarkers related with loss of heterozygosity on chromosomal arm 1p. J Proteomics. 2012;77:480–91.View ArticlePubMedGoogle Scholar
- Xu DD, Deng DF, Li X, Wei LL, Li YY, Yang XY, et al. Discovery and identification of serum potential biomarkers for pulmonary tuberculosis using iTRAQ-coupled two-dimensional LC-MS/MS. Proteomics. 2014;14:322–31.View ArticlePubMedGoogle Scholar
- Jin GZ, Li Y, Cong WM, Yu H, Dong H, Shu H, et al. iTRAQ-2DLC-ESI-MS/MS based identification of a new set of immunohistochemical biomarkers for classification of dysplastic nodules and small hepatocellular carcinoma. J Proteome Res. 2011;10:3418–28.View ArticlePubMedGoogle Scholar
- Liu J, Li Y, Wei L, Yang X, Xie Z, Jiang T, et al. Screening and identification of potential biomarkers and establishment of the diagnostic serum proteomic model for the Traditional Chinese Medicine Syndromes of tuberculosis. J Ethnopharmacol. 2014;155:1322–31.View ArticlePubMedGoogle Scholar
- Xu D, Li Y, Li X, Wei LL, Pan Z, Jiang TT, et al. Serum protein S100A9, SOD3, and MMP9 as new diagnostic biomarkers for pulmonary tuberculosis by iTRAQ-coupled two-dimensional LC-MS/MS. Proteomics. 2015;15:58–67.View ArticlePubMedGoogle Scholar
- Kobayashi K, Kaneda K, Kasama T. Immunopathogenesis of delayed-type hypersensitivity. Microsc Res Tech. 2001;53:241–5.View ArticlePubMedGoogle Scholar
- Turken O, Kunter E, Sezer M, Solmazgul E, Cerrahoglu K, Bozkanat E, et al. Hemostatic changes in active pulmonary tuberculosis. Int J Tuberc Lung Dis. 2002;6:927–32.PubMedGoogle Scholar
- Sahin F, Yazar E, Yildiz P. Prominent features of platelet count, plateletcrit, mean platelet volume and platelet distribution width in pulmonary tuberculosis. Multidiscip Respir Med. 2012;7:38.View ArticlePubMedPubMed CentralGoogle Scholar
- Yao R, Schneider E, Ryan TJ, Galivan J. Human gamma-glutamyl hydrolase: cloning and characterization of the enzyme expressed in vitro. Proc Natl Acad Sci U S A. 1996;93:10134–8.View ArticlePubMedPubMed CentralGoogle Scholar
- Galivan J, Ryan TJ, Chave K, Rhee M, Yao R, Yin D. Glutamyl hydrolase pharmacological role and enzymatic characterization. Pharmacol Ther. 2000;85:207–15.View ArticlePubMedGoogle Scholar
- Kim SE, Cole PD, Cho RC, Ly A, Ishiguro L, Sohn KJ, et al. gamma-Glutamyl hydrolase modulation and folate influence chemosensitivity of cancer cells to 5-fluorouracil and methotrexate. Br J Cancer. 2013;109:2175–88.View ArticlePubMedPubMed CentralGoogle Scholar
- Kompis IM, Islam K, Then RL. DNA and RNA synthesis: antifolates. Chem Rev. 2005;105:593–620.View ArticlePubMedGoogle Scholar
- Zheng J, Rubin EJ, Bifani P, Mathys V, Lim V, Au M, et al. para-Aminosalicylic acid is a prodrug targeting dihydrofolate reductase in Mycobacterium tuberculosis. J Biol Chem. 2013;288:23447–56.View ArticlePubMedGoogle Scholar
- Maertzdorf J, Ota M, Repsilber D, Mollenkopf HJ, Weiner J, Hill PC, et al. Functional correlations of pathogenesis-driven gene expression signatures in tuberculosis. PLoS One. 2011;6:e26938.View ArticlePubMedPubMed CentralGoogle Scholar
- Nimmerjahn F, Ravetch JV. Fcgamma receptors as regulators of immune responses. Nat Rev Immunol. 2008;8:34–47.View ArticlePubMedGoogle Scholar
- Bajtay Z, Csomor E, Sandor N, Erdei A. Expression and role of Fc- and complement-receptors on human dendritic cells. Immunol Lett. 2006;104:46–52.View ArticlePubMedGoogle Scholar
- Maglione PJ, Xu J, Casadevall A, Chan J. Fc gamma receptors regulate immune activation and susceptibility during Mycobacterium tuberculosis infection. J Immunol. 2008;180:3329–38.View ArticlePubMedGoogle Scholar
- Jäger L, Franklin KA, Midgren B, Löfdahl K, Ström K. Increased survival with mechanical ventilation in posttuberculosis patients with the combination of respiratory failure and chest wall deformity. Chest. 2008;133:156–60.View ArticlePubMedGoogle Scholar
- Penner C, Roberts D, Kunimoto D, Manfreda J, Long R. Tuberculosis as a primary cause of respiratory failure requiring mechanical ventilation. Am J Respir Crit Care Med. 1995;151:867–72.View ArticlePubMedGoogle Scholar
- Bernard GR, Artigas A, Brigham KL, Carlet J, Falke K, Hudson L, et al. The American-European consensus conference on ARDS: definitions, mechanisms, relevant outcomes, and clinical trial coordination. Am J Respir Crit Care Med. 1994;149:818–24.View ArticlePubMedGoogle Scholar
- Nickel D, Busch M, Mayer D, Hagemann B, Knoll V, Stenger S. Hypoxia triggers the expression of human beta defensin 2 and antimicrobial activity against Mycobacterium tuberculosis in human macrophages. J Immunol. 2012;188:4001–7.View ArticlePubMedGoogle Scholar
- Mairbaurl H, Weber RE. Oxygen transport by hemoglobin. Comprehensive Physiol. 2012;2:1463–89.Google Scholar
- Aronowski J, Zhao X. Molecular pathophysiology of cerebral hemorrhage: secondary brain injury. Stroke. 2011;42:1781–6.View ArticlePubMedPubMed CentralGoogle Scholar
- Babu R, Bagley JH, Di C, Friedman AH, Adamson C. Thrombin and hemin as central factors in the mechanisms of intracerebral hemorrhage- induced secondary brain injury and as potential targets for intervention. Neurosurg Focus. 2012;32:E8.View ArticlePubMedGoogle Scholar
- Zhou Y, Wang Y, Wang J, Anne Stetler R, Yang QW. Inflammation in intracerebral hemorrhage: from mechanisms to clinical translation. Prog Neurobiol. 2014;115:25–44.View ArticlePubMedGoogle Scholar
- Zhao X, Song S, Sun G, Strong R, Zhang J, Grotta JC, et al. Neuroprotective role of haptoglobin after intracerebral hemorrhage. J Neurosci. 2009;29:15819–27.View ArticlePubMedPubMed CentralGoogle Scholar
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