All leptospiral strains were aligned to reference sequences for the six genes in the NCBI GenBank, if adequate sequences were available. Accession numbers for L. interrogans serovar Copenhageni strain Fiocruz L1-130 are AE016823.1 and for L. borgpetersenii serovar Hardjo-bovis strain L550: CP000348.1. Accession numbers

for the Treponema outgroup are AE017226.1, see more CP001843.1 and CP000805.1. For DNA extraction, each strain was cultured for seven days. Six millilitres of the cultured organisms were centrifuged at 14.000 rpm, 4°C for 10 min, the pellet was then washed once with PBS and either stored at −30°C or used directly for DNA extraction. Extraction was performed using the QIAamp® DNA Mini Kit (Qiagen, Hilden, Germany) following the manufacturer’s instructions. PCR for each target gene was performed using 25 mM MgCl2 (included in the 10x standard reaction buffer, NEB, Frankfurt am Main, Germany), 0.2 mM dNTP`s (NEB), 1 U Taq DNA Polymerase (NEB) and 1 μl template DNA. Amplification Ferroptosis phosphorylation parameters were set according to Ahmed et al. [33],

using the Master Cycler® pro system (Eppendorf AG, Hamburg, Germany). PCR products were visualized in 1.6% agarose gels. Products were then purified using the peqGOLD Gel Extraction Kit (Peqlab, Erlangen, Germany) following the manufacturer’s instruction. Five nanograms per μl of the purified product were sequenced by Eurofins MWG Operon (Ebersberg, Germany). All

strains were sequenced twice. Sequence analysis was performed by using the MEGA4 Software and Neighbor Joining trees were constructed for each gene and for each leptospiral strain according to Ahmed et al. [33]. 16S rRNA gene sequencing 16S rRNA gene sequencing was performed with the bacterial universal primers 27f (agagtttgatcmtggctcag) and 1392r (acgggcggtgtgtgtrc) (see GATC Biotech AG, Konstanz, Germany; http://​www.​gatc-biotech.​com, free universal primers). PCR was performed using HotStarTaq® Master Mix (Qiagen, Hilden, Germany) with the following profile: 15 min at 95°C for initial denaturation, 35 cycles of 30 sec at 95°C, 30 sec at 56°C and 1.5 min at 72°C, followed by a final extension step of 72°C for 5 min. Endonuclease PCR products were purified using the QIAquick PCR purification kit (Qiagen, Hilden, Germany) and sequence analyses were performed using the Cycle Sequencing Kit (Applied Biosystems, Carlsbad, California, USA) following the manufacturer’s instructions. Sequencing was carried out on Applied Biosystems 3130 Genetic Analyzer (Applied Biosystems, Carlsbad, California, USA) and the sequences were analyzed using the 16S rRNA gene database of SmartGene (Lausanne, Switzerland). A Maximum Likelihood phylogenetic tree of all 28 leptospiral 16S rRNA gene sequences was computed with PHYLIP dnaml (SmartGene).

However, the quantum size effect cannot be used to explain the increased light absorption of the ITO/nc-TiO2/CdS(5) and ITO/nc-TiO2/CdS(10)/P3HT:PCBM films in near-infrared (NIR) region (wavelength >700 nm) see more because bulk CdS with an absorption onset of 2.42 eV mainly absorbs in the visible region (wavelength from roughly 400 to 700 nm). The increased light absorption of these

films with CdS in the NIR region may be probably due to the electron coupling between the TiO2 and CdS heterostructure [29, 30]. As shown in Figure 1b, the photogenerated electrons can effectively transfer from the conduction band (CB) of CdS to that of TiO2 because of the lower CB level (−4.2 eV) of TiO2 than that (−3.7 eV) of CdS, which may most probably be due to a superposition of the electronic states of TiO2 and CdS. Therefore, an electronic interaction between the TiO2 and CdS exists and makes the bandgap of the TiO2/CdS composite system different from that of TiO2 or CdS. For example, as reported previously by Luo et al. [30], the bandgap of the TiO2/CdS composite system is 2.39 eV, which is even smaller than that of bulk CdS and leads to a weak absorption of the TiO2/CdS film in the NIR region. These results show that the deposited CdS nanoparticles effectively improve

the light absorption of the ITO/nc-TiO2 and ITO/nc-TiO2/P3HT:PCBM films, which is beneficial to the improvement of the performance of the cells. Figure 4 UV–vis absorption

spectrum of the ITO/nc-TiO 2 , ITO/nc-TiO 2 /CdS(5), and ITO/nc-TiO 2 /CdS( n )/P3HT:PCBM films ( AZD3965 n  = 0 and 10). In order to more clearly investigate the influence of CdS QDs on the optoelectronic performance of the prepared solar cells, the I-V characteristics of the ITO/nc-TiO2/CdS(n)/P3HT:PCBM solar cells without the PEDOT:PSS layer under 100-mW/cm2 white light illumination were first measured as shown in Figure 5 (n = 0, 5, 10, and 15). Four factors concerning cell performance: V oc, I sc, fill factor (FF), NADPH-cytochrome-c2 reductase and power conversion efficiency (PCE), extracted from the I-V characteristics are shown in Table 1. It can be found that the PCE of the ITO/nc-TiO2/P3HT:PCBM/Ag cell under white light illumination with an intensity of 100 mW/cm2 is only about 0.15%, which is comparable to the reported PCE value of 0.13% [11]. Moreover, the V oc (0.15 V), I sc (3.81 mA/cm2), and FF (0.27) are also very close to the reported values, i.e., V oc = 0.15 V, I sc = 4 mA/cm2, and FF = 0.27 [11]. Figure 5 I – V characteristics of the ITO/nc-TiO 2 /CdS( n )/P3HT:PCBM devices ( n  = 0, 5, 10, and 15). Table 1 Summary of PV cell performance under white light illumination with an intensity of 100 mW/cm 2 Cells V oc(V) I sc(mA/cm2) PCE (%) FF ITO/nc-TiO2/P3HT:PCBM/Ag 0.15 3.81 0.15 0.27 ITO/nc-TiO2/CdS(5)/P3HT:PCBM/Ag 0.60 5.81 1.57 0.5 ITO/nc-TiO2/CdS(10)/P3HT:PCBM/Ag 0.40 4.93 0.68 0.35 ITO/nc-TiO2/CdS(15)/P3HT:PCBM/Ag 0.33 4.90 0.61 0.

However, it can cause side effects such as cardiotoxicity

and drug resistance. Also, it is difficult to administer intravenously because of its low solubility in aqueous media. Nanomaterial-based drug delivery systems have received attention in overcoming Alectinib in vitro this drawback. These systems can be made from a variety of organic and inorganic materials including non-degradable and biodegradable polymers, and inorganic nanocrystals. Polymeric micelles based on amphiphilic block copolymers have the advantages of high biocompatibility and drug-loading capacity with low toxicity because they can self-assemble into polymeric micelles in aqueous media [8, 15–17]. They accumulate in tumors through an enhanced permeation and retention (EPR) effect compared to single small molecules, leading to preferential spatio-distribution in the tumor. However, the drug release behavior of polymeric micelles is difficult to control; they freely release the drug before reaching tumors, which could give rise to unwanted side effects and low

therapeutic efficacy [4, 8]. Well-designed drug delivery systems need to be developed to enable cancer chemotherapy that fundamentally enhances therapeutic efficacy by minimizing drug release in undesirable sites. With these systems, a precise drug concentration can be delivered to tumors to reduce side effects. Drug delivery systems can be designed to release drugs triggered by environmental parameters such as pH, enzymes, and temperature [16, 18–29]. Y 27632 The pH-sensitive systems are of special interest because tumors and intracellular endosomal/lysomal compartments exhibit abnormally high local acidities compared to healthy tissues with a normal physiological pH of 7.4 [9, 21, 25, 28–43]. In this study, chitosan-based intelligent theragnosis nanocomposites that enable pH-sensitive drug release with magnetic resonance (MR)-guided images were developed (Figure 1). This nanocomposite was based on N-naphthyl-O-dimethymaleoyl

chitosan (N-nap-O-MalCS), a newly synthesized, pH-sensitive amphiphilic copolymer modified by maleoyl groups on a chitosan backbone. Chitosan is non-toxic, biodegradable, and non-immunogenic [44–72]. It is a linear polysaccharide Montelukast Sodium consisting of N-acetyl-glucosamine (acetylated) and glucosamine (deacetylated) repeating units, and its abundant reactive groups facilitate chemical modification of functional groups. Hydrophobic magnetic nanocrystals were loaded as imaging agents in this system, leading to the formulation of theragnosis nanocomposites capable of delivery therapy concomitant with monitoring. This nanocomposite will allow effective cancer therapy because it can provide patient-specific drug administration strategies that consider drug-release patterns and biodistribution. Figure 1 Schematic illustration of N Chitosan-DMNPs enabling pH-sensitive drug release and MR monitoring for cancer therapy. Methods Materials Chitosan with an average molecular weight (mol. wt.

In addition,

intrinsic Chl labeling is possible through the supply of isotope-labeled Ala to the cells (Janssen et al. 2010). By sparse labeling of chlorophylls, the NMR signals of these pigments can be resolved from the protein background signals, in order to identify the role of different Chls (Schulten et al. 2002). The assignment of the Car pigments will be more difficult, since DAPT mw there is strong overlap between the NMR signals of their polyene chain 13C nuclei. Characterization of the xanthophylls properties by NMR will probably rely on the use of recombinant proteins, where xanthophyll chromophores are substituted by selectively labeled isotopomers (de Groot et al. 1992). The next challenge is to apply these NMR methods, which have been proven successful for characterization of purple bacterial antennae and of various photosynthetic reaction centers, to the more complex light-harvesting systems of oxygenic photosynthetic organisms, where subtle conformational features may have a functional role in maintaining the integrity of the photosynthetic antenna under high light and drought p38 MAPK activation stress conditions. Open Access This article is distributed under the terms of the Creative Commons Attribution Noncommercial License

which permits any noncommercial use, distribution, and reproduction in any medium, provided the original author(s) and source are credited. References Adolphs J, Muh F, Madjet MEA, Renger T (2008) Calculation of pigment transition energies in the FMO protein. Photosynth Res 95(2–3):197–209. doi:10.​1007/​s11120-007-9248-z PubMedCrossRef Ahn TK, Avenson TJ, Ballottari M, Cheng YC, Niyogi KK, Bassi R, Fleming GR (2008) Architecture of a charge-transfer state regulating light harvesting in a plant

antenna protein. Science 320(5877):794–797. doi:10.​1126/​science.​1154800 PubMedCrossRef Flavopiridol (Alvocidib) Alia, Matysik J, Soede-Huijbregts C, Baldus M, Raap J, Lugtenburg J, Gast P, van Gorkom HJ, Hoff AJ, de Groot HJM (2001) Ultrahigh field MAS NMR dipolar correlation spectroscopy of the histidine residues in light-harvesting complex II from photosynthetic bacteria reveals partial internal charge transfer in the B850/His complex. J Am Chem Soc 123 (20):4803–4809. doi:10.​1021/​ja002591z Alia Matysik J, de Boer I, Gast P, van Gorkom HJ, de Groot HJM (2004) Heteronuclear 2D (H-1-C-13) MAS NMR resolves the electronic structure of coordinated histidines in light-harvesting complex II: assessment of charge transfer and electronic delocalization effect. J Biomol NMR 28(2):157–164. doi:10.​1023/​B:​JNMR.​0000013842.​72291.​48 CrossRef Alia A, Ganapathy S, de Groot HJM (2009) Magic angle spinning (MAS) NMR: a new tool to study the spatial and electronic structure of photosynthetic complexes. Photosynth Res 102(2–3):415–425. doi:10.

The care of the fetus and fetal outcomes among patients with PASS is not part of the present review and Galunisertib datasheet has been described elsewhere [25]. Methods Relevant English-language original publications were sought through search of PubMed and EMBASE (from January 1992 through March 2014), using the following key terms: sepsis, severe sepsis, septic shock, septicemia, organ failure, critical illness, critical care, intensive care, mortality and pregnancy, abortion, delivery, puerperium, and miscarriage. Identified citations were further searched for additional referenced citations. The following publication categories were excluded: (a) published only in an abstract form, (b) contained no original data, or (c) did not specifically

describe a group of patients with severe sepsis associated with pregnancy (i.e., at the minimum, the number of

affected patients, with or without other characteristics), either as primary or additional focus of Protease Inhibitor Library order the report. The search strategy is described in detail in the Electronic Supplementary Material. Following removal of duplicate citations, 4,718 articles were identified, of which 4,710 did not meet eligibility criteria [reviews (322), reports on fetal/newborn events (1,933), case reports (743), and lack of specific description of maternal severe sepsis (1,712)]. The remaining eight full-text articles were the focus of the present review. Descriptive statistics were used. This article does not involve any new studies with human or animal subjects performed by the author. The Epidemiology of Pregnancy-Associated Severe Sepsis The key characteristics of identified studies providing epidemiological data on PASS are presented in Table 1. Several single-center and regional studies have reported the incidence of PASS. Mabie et al. [27] reported the incidence of pregnancy-associated septic shock of 12 per 100,000 deliveries-years in a two-hospital study. In a regional study, including 25 hospitals in the United Kingdom (UK) reported by Waterstone et al. [28], the incidence of PASS click here was 35 per 100,000 deliveries-years.

Finally, a study of PASS in a tertiary center in Scotland by Acosta et al. [29] found an incidence of PASS 13 per 100,000 maternities-years. All three studies employed contemporary definitions of severe sepsis. Their findings have, however, several limitations. Data from local facilities may not reflect the epidemiology in a broader population. In addition, the sample size was extremely small, being 18 patients [27], 17 patients [28], and 14 patients [29], affecting precision of overall and annual [29] incidence estimates. Moreover, the reported incidence data were spread over 11 years [27] and 23 years [29], during which the development of PASS and obstetric practice have likely changed. In addition, the last two studies [28, 29] may have underestimated the number of PASS events, due to a restriction of case definition to culture-positive patients.

1. Use of ACE inhibitors for children with CKD   Retrospective studies have suggested ACE inhibitors decrease proteinuria and slow the progression of renal insufficiency.

The ESCAPE Trial reported that strict blood pressure control using ramipril slowed the progression of renal insufficiency. However, the ACE inhibitors are not approved as renoprotective agents. The dose of ACE inhibitors (enalapril and ramipril) approved as antihypertensive agents for children in Japan should serve as the reference dose. 2. Use of ARBs for children with CKD   Retrospective studies have suggested that ARBs decrease proteinuria Bortezomib order and inhibit the progression of renal insufficiency. A double-blind multinational study of 306 children with CKD reported that losartan significantly lowered BMS-354825 mw proteinuria and was well tolerated after 12 weeks in children with proteinuria with or without hypertension. ARBs are not approved as renoprotective agents. The dose of ARBs (valsartan) approved as antihypertensive agents of children in Japan should serve as the reference dose. 3. Combination therapy with ACE inhibitors and ARBs

for children with CKD   The efficacy of combination therapy with ACE inhibitors and ARBs compared with single agent therapy (ACE inhibitor or ARB) has not been investigated in any RCTs. Therefore, we cannot

recommend combination therapy for the treatment of children with CKD with hypertension or proteinuria. Both ACE inhibitors and ARBs should be used cautiously if the GFR is less than 60 mL/min per 1.73 m2. Since the decline in GFR and hyperkalemia induced by RAS inhibition typically occurs within the first few days after the onset of therapy, the serum creatinine and potassium concentrations should be monitored. Bibliography 1. Soergel M, et al. Pediatr Nephrol. 2000;15:113–8. (Level 4)   2. Wühl E, et al. Kidney Int. 2004;66:768–76. (Level 4)   3. Ardissino G, et al. Nephrol Dial Transplant. 2007;22:2525–30. (Level 4)   4. ESCAPE Trial Group, et al. N Engl J Med. 2009;361:1639–50. (Level 2)   5. von Vigier RO, et al. Eur J Pediatr. Rebamipide 2000;159:590–3. (Level 4)   6. Ellis D, et al. J Pediatr. 2003;143:89–97. (Level 4)   7. Ellis D, et al. Am J Hypertens. 2004;17:928–35. (Level 4)   8. Simonetti GD, et al. Pediatr Nephrol. 2006;21:1480–2. (Level 4)   9. Franscini LM, et al. Am J Hypertens. 2002;15:1057–63. (Level 4)   10. White CT, et al. Pediatr Nephrol. 2003;18:1038–43. (Level 3)   11. Webb NJ, et al. Clin J Am Soc Nephrol. 2010;5:417–24. (Level 2)   12. Seeman T, et al. Kidney Blood Press Res. 2009;32:440–4. (Level 4)   13. Litwin M, et al. Pediatr Nephrol. 2006;21(11):1716–22.

Table

3 The energy expenditure and macronutrients intake of Kuwaiti fencers Macronutrients Fencing Players (mean ± SD) Normal Range (RDA) P value Energy (Kcal) 3459.2* ± 916.9 2655 (calorie/d) 0.005 Total Carbohydrates (g/d) 393.4* ± 111.9 300 (g/d) 0.005 Total Fat (g/d) 145.4* ± 58.3 80 (g/d) 0.01 Saturated Fat (g/d) 48.8* ± 14.7 28 (g/d) 0.02 Monounsaturated Fat (g/d) 52.9* ± 16.3 34 (g/d) 0.006 Polyunsaturated Fat (g/d) 43.8* ± 18.3 17 (g/d) 0.000 Total Protein (g/d) 144.2* ± 42.3 58 (g/d) U0126 nmr 0.000 Fiber (g/d) 14.85* ± 3.97 38 (g/d) 0.000 Cholesterol (mg/d) 467.8* ± 180.0 300 (mg/d) 0.004 * p < 0.05 significantly different from RDA values. RDA = recommended dietary allowance. Established by the Food and Nutrition

Board of the Institute of Medicine, the RDA is the average daily dietary intake level of a nutrient sufficient to meet the requirements of nearly all healthy individuals in a specific life stage and gender group. The FDA estimates that the average daily intake of trans fat in the U.S. population is about 5.8 grams or 2.6 percent of calories per day for individuals 20 years of age and older. The calories calculators based on Harris Benedict Equation and Dietary Reference Intakes, Institute of Medicine (IOM), 2005. Adapted by Mayo Foundation for Medical Education and Research. Total carbohydrates consumed averaged 393.4 ± 111.9 g/d in comparison with normal value of 300 g/d. The mean consumption of total fat and saturated fat by Kuwaiti fencers were 145.4 ± 58.3 g/d and 48.8 ± 14.7 g/d which surpasses the recommended this website daily allowances set by RDA at 80 and 28 g/d, respectively. However, they consumed more monounsaturated fat 52.9 ± 16.3 g/d and polyunsaturated fat 43.8 ± 18.3 g/d. The subjects attained higher levels of cholesterol (467.8 ± 180.0 mg/d) than the normal requirement of 300 mg/d advised by RDA. The results of the present study also showed that the recommended dietary protein allowances 58 g/d were also exceeded. The fencers consumed high amount of protein 144.2 ±

42.3 g/d. The Leukocyte receptor tyrosine kinase low quantity of fiber consumed by the fencers 14.85 ± 3.97 g/d in comparison to daily recommended 30 g/d by the American Dietetic Association. Table 4 The Micronutrients intake of fencing players (N = 15) Micronutrient Fencing Players (mean ± SD) Normal Range (RDA) P value Vitamin C (mg) 153.13* ± 64.3 90 mg/d .041 Iron(mg) 20.45* ± 5.82 8 mg/d .000 Calcium (mg) 974.8 ± 334.9 1000 mg/d .783 Sodium(mg) 5306.6* ± 1033.9 2300 mg/d .000 Potassium(mg) 4146.14 ± 1333.2 4700 mg/d .144 Phosphorus (mg) 2049.71* ± 627.6 800 mg/d .000 Caffeine (mg) 69.91* ± 55.6 25 mg/d .01 *: p < 0.05 significantly different from RDA values. There was a statistically significant difference in the values for all micronutrients consumed by the Kuwaiti fencing team and the RDA except for calcium and potassium.

E. coli is among the most prevalent causes of hospital-acquired and community-acquired bacterial infections and their resistances to antimicrobial agents have become a serious concern for healthcare providers [5]. Phylogenetic analyses have classified E. coli into four main phylogenetic groups (A, B1, B2, and D). Commensal isolates belong mainly to A and B1 groups whereas virulent extra-intestinal pathogenic

E. coli (ExPEC) are essentially from the B2 and D groups [12, 13]. ExPEC harbor numerous virulence factors including α-hemolysin, cytotoxic necrotizing factor, adhesins and iron acquisition systems [12]. The spread of bla CTX-M-15 has been mainly associated with the dissemination of a particular clone of E. coli ST131 belonging to phylogenetic SAHA HDAC mouse group B2 [14, 15]. Recently, an E. coli clone O25 ST131, producing CTX-M-15, with high virulence potential and belonging to the B2 group, has been reported and represent a

major public health problem [14, 15]. Many reports have documented the emergence of ESBL-producing Enterobacteriaceae[16–18]. In Antananarivo, ESBLs were first detected in 2005 from UTI in 9.7% of isolated Enterobacteriaceae[19]. In 2006, outbreaks of CTX-M-15 and SHV-2-producing K. pneumoniae isolates have been described in two pediatric units [20]. More recently, 21.3% of clinical isolates from patients in surgery and intensive care units [21] and 21.2% of intestinal carriage isolates from children hospitalized in a pediatric department of a large teaching hospital [22] were ESBL-producers. For 49 BTK inhibitor multidrug-resistant Enterobacteriaceae isolates from Antananarivo, we characterized: i) the genes encoding the ESBLs; ii) the drug resistance genes associated with the ESBL genes; iii) gene cassettes present in the isolates; and iv) the plasmid incompatibility groups of the isolates. We also

determined the phylogenetic groups and virulence factors of the E. coli isolates. Methods Ethical clearance The study Branched chain aminotransferase protocols were approved by the National Ethics Committee of Madagascar. Written informed consents were obtained from all patients and at least one parent of each child before enrollment. Patients Between September 2006 and December 2007, a total of 909 non-duplicate bacterial isolates were obtained from 909 patients. 830 patients were recruited from several wards in four hospitals in Antananarivo, Madagascar (two national university teaching hospitals: Joseph Ravoahangy Andrianavalona Hospital and Befelatanana Hospital; a military hospital: Soavinandriana Hospital; and a pediatric hospital: Tsaralalana Hospital) and 79 patients referred to the Pasteur Institute Medical Laboratory in Antananarivo. Laboratory methods Various clinical specimens (including blood-culture, urine, pus, sputum and CSF) were collected and submitted for bacterial analysis at the Pasteur Institute Medical Laboratory in Antananarivo.

Between each precipitation the sample was centrifuged at 3000 rpm for 15 minutes. The precipitated glycogen was submitted to acid hydrolysis in the presence of phenol. The values were expressed in mg/100 mg of wet weight, using the Siu method [26]. Determination of serum cytokines After the period of supplementation and training, measurements of IL-6, TNF-α and IL-10 in plasma were made by ELISA using the R & D Systems Quantikine High Sensitivity kit (R&D Systems, Minneapolis, MN, USA) for each cytokine. The intra-assay coefficient of variance (CV) was 4.1 – 10%, the inter-assay CV was 6.6 – 8%, and the sensitivity was 0.0083 pg/ml [13]. The duplicate plasma aliquots for all cytokines

analysis were used. Corticosterone determination Plasma corticosterone was determined by ELISA, using the Stressgen kit (Corticosterone click here ELISA KIT Stressgen@), Michigan, USA). The sensitivity range of the assay was 32-20.000 ng/ml. The duplicate plasma aliquots for hormone analysis were used. Determination of

glycogen synthetase-alpha (GS-α) mRNA expression in the soleus muscle Total RNA extraction Total RNA was obtained from 100 mg of soleus muscle. The tissue were stored at -70°C until the time of measurement. Cells were lysed using 1 mL of Trizol reagent (Life Technologies, Rockville, MD, USA). After incubation of 5 min at room temperature, 200 μL chloroform was added to the tubes and centrifuged at 12,000 × g. The aqueous phase was transferred to another learn more tube and the RNA was pelleted by centrifugation

(12,000 × g) with cold ethanol and air-dried. After this, RNA pellets were diluted in RNase-free water and treated with DNase I. RNAs were stored at -70°C until the time of measurement. RNA was quantified by measuring absorbance at 260 nm. The purity of the RNAs was assessed by the 260/280 nm ratios and on a 1% agarose gel stained with ethidium bromide at 5 μg per mL [27]. RT-PCR RT-PCR was performed using parameters described by Innis and Gelfand [28]. The number of cycles used was selected to allow quantitative comparison of the samples in a linear manner. For semi-quantitative PCR analysis, the housekeeping β-actin gene was used as Janus kinase (JAK) reference. The primer sequences and their respective PCR fragment lengths are: GSK3-α sense: AATCTCGGACACCACCTGAGG – 3′; anti-sense: 5′GGAGGGATGAGAATGGCTTG – 3′. Control: β-actina sense: 5′-ATGAAGATCCTGACCGA GCGTG-3′; anti-sense: 5′- TTGCTGATCCACATCTGCTGG-3′. Published guidelines were followed to guard against bacterial and nucleic acid contamination [29]. Analysis of the PCR products The PCR amplification products were analyzed in 1.5% gels containing 0.5 μg per mL of ethidium bromide and were electrophoresed for 1 h at 100 V. The gels were photographed using a DC120 Zoom Digital Camera System from Kodak (Life Technologies, Inc., Rockville, MD, USA).

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