|Year : 2019 | Volume
| Issue : 1 | Page : 16-22
Examining the antitumoral effect of cornelian cherry (Cornus mas) in ehrlich ascites tumor-induced mice
Seher Yilmaz1, Şerife Alpa2, Mehtap Nisari3, Gökçe Şeker Karatoprak4, Züleyha Doğanyiğit5, Harun Ülger3, Tolga Ertekin6
1 Department of Anatomy, Faculty of Medicine, Bozok University, Yozgat, Turkey
2 Department of Anatomy, School of Medicine, KTO Karatay University, Konya, Turkey
3 Department of Anatomy, Faculty of Medicine, Erciyes University, Kayseri, Turkey
4 Department of Pharmacognosy, Faculty of Pharmacy, Erciyes University, Kayseri, Turkey
5 Department of Histology Embryology, Faculty of Medicine, Bozok University, Yozgat, Turkey
6 Department of Anatomy, Faculty of Medicine, Kocatepe University, Afyon, Turkey
|Date of Web Publication||16-Jul-2019|
Dr. Seher Yilmaz
Department of Anatomy, Medicine Faculty, University of Bozok, TR-38039, Yozgat
Source of Support: None, Conflict of Interest: None
Introduction: Different doses of C. Mas concentrated syrup on ascitic tumors was investigated in the Ehrlich Ascites Tumor model (EAT). Material and Methods: A total of 46 Balb/C mice were used in our study, 6 of which were stock animals and the other were in ascitic tumor groups. EAT cells (1x106 EAT cells) were injected intraperitoneally into all of the mice. Mice in the treatment groups with ascitic tumors received 100 mg/kg and 200 mg/kg Cornus Mas extract intraperitoneally for 9 days. Results: Counts after the 3 and 24-hour incubations in the EAT cell line that the average number of the dead cells was less in the group to which 100μg/ml C. Mas was administered when compared with the control group, and that this difference was significant at a statistical level (P<0.05). The purpose was also to determine the in vitro cytotoxic effects of Cornus Mas on EAT cells, to define the alive and dead cell rates, and to compare the 3-hour and 24-hour incubation in groups to which Cornus Mas (syrup) extract were given at different concentrations (50, 100, 250μg/ml). Discussion and Conclusion: EAT model is one of the animal tumors induced empirically, it has been the subject matter of many other studies. In the group in which EAT was applied together with high-dose C. mas fruit syrup, it was observed that the EAT cells were not as intense as they were in the tumor control group. Our study showed the anti-tumor effect of C. Mas in assisted tumor development with EAT cells.
Keywords: Antitumoral, Cornus mas, tumor-induced mice
|How to cite this article:|
Yilmaz S, Alpa &, Nisari M, Karatoprak G&, Doğanyiğit Z, Ülger H, Ertekin T. Examining the antitumoral effect of cornelian cherry (Cornus mas) in ehrlich ascites tumor-induced mice. J Anat Soc India 2019;68:16-22
|How to cite this URL:|
Yilmaz S, Alpa &, Nisari M, Karatoprak G&, Doğanyiğit Z, Ülger H, Ertekin T. Examining the antitumoral effect of cornelian cherry (Cornus mas) in ehrlich ascites tumor-induced mice. J Anat Soc India [serial online] 2019 [cited 2020 Feb 23];68:16-22. Available from: http://www.jasi.org.in/text.asp?2019/68/1/16/262713
| Introduction|| |
Cancer cases are increasing in the world and cancer treatment modalities are changing day by day., Herbal agents are among the most used products in complementary medicine. Medicinal plants that are used today have been known by people of ancient cultures around the world and have largely been considered due to their medicinal properties. Cornus mas, which belongs to Cornaceae family and is known as Cornelian cherry, is one of these medicinal plants with high level of antioxidant activity. Cornelian cherry is a plant that has high nutritional value and also has therapeutic properties. It grows in Asia and Europe. Especially in Turkey, it is grown in gardens for its fruit as it grows wild in Northern Anatolian forests.
C. mas ranges from a shrub to a small tree of about 3–5 m in height. The fruits are 12–15 mm long and the color is red in maturity. There are 1,585,000 Cornelian cherry trees in Turkey with a yield of approximately 14,000 tons per year. Cornelian cherry fruits have high levels of natural antioxidants such as ascorbic acid, anthocyanin, and phenolic contents. Organic acids (malic acid and citric acid) and also mucilage are present in the fruit. The Cornelian cherry fruits, which have sour and sweet-tasting juice, contain a high amount of Vitamin C. Furthermore, the fruits are not only consumed fresh but also used to produce jam, stewed fruit, marmalade, dried fruit roll-ups (a locally dried fruit pulp product), syrup, and several types of soft drinks. For medicinal purposes in Turkey, fresh or dried fruit boiled in water is used in diarrhea treatment. The cortex of the body and the shells of the C. mas shrub are used in diarrhea, fever, and intestinal parasite treatment as an infusion. Dried and powdered C. mas leaves are used as dryers and wound healing agents on wounds. Furthermore, infusion prepared from flowers is used for asthma treatment. In Iran, conventionally, the fruits have been used as a remedy for diarrhea, inflammatory bowel disease, fever, malaria, kidney stones, urinary tract infections, cancer, and sunstroke.
Cornelian cherry fruit has also been used in Chinese herbal medicine for its tonic, analgesic, and diuretic properties. Extracts are also used for cosmetic determination in Europe and are claimed to have a positive effect on human skin. In folk medicines, the fruits and other parts of the plant have been used for the prevention and treatment of a wide range of diseases. Most of the biological effects of C. mas are attributed to its chemical constituents.
Scientific studies have focused on researching the anticancer potential of naturally derived compounds. Antitumoral effects of plant extracts have been tested on several cancer models, one of which is the Ehrlich ascites tumor (EAT) model., The EAT model first appeared as a spontaneous breast adenocarcinoma in a female mouse. Tumor pieces were transplanted subcutaneously into mice and transformed into experimental tumors. Then, another tumor form was obtained growing in liquid form in the peritoneum of the mice. This tumor is called the EAT because it produces ascitic fluid like cells in the peritoneum. This model has been included in many studies.,
In the literature, the cytotoxic effect of C. mas on several cancer cell lines mainly focused on its flower and leave extracts. Due to frequent consumption of Cornelian cherry fruits among the population and use for anticancer purposes in folk medicine, the aim of this study is to investigate the antitumor effect of C. mas fruit, which has not been tested in this model on the experimental EAT model in Balb/C mice.
| Material and Methods|| |
The study on experimental animals was made in accordance with the decision of the Local Ethics Committee of Animal Experiments, Erciyes University, dated October 12, 2016, with the number 16/119. Balb/C type male mice with 8–10 weeks old and with average weights of 25–30 g were used in the study. Four groups which included 10 mice each were identified. During the study, mice were kept in specially prepared, automatically air-conditioned chambers which had 12-h light/dark periods and a constant temperature of 21°. EAT cells from stock mice were used for in vitro cell culture with liquid tumor formation in vivo.
Formation of the stock mice
The stock cells were thawed at room temperature and were administered to stock animal as 0.1 ml in intraperitoneal way the stomach area. It was expected that ascites tumor would occur in the stock animal within 7–8 days [Table 1]. The 1 × 106 EAT cells in the ascitic fluid drawn with the help of an injector from the stock animal were administered to the mice intraperitoneally in 0.1 ml.
Preparation of Cornus mas syrup
Fresh C. mas fruits were boiled in water approximately 15 min. After then, the fruits were grinded and filtered with filter aid. The filtrate was further boiled for a while to prepare the concentrated syrup. The concentrated syrup was frozen at −80° degrees after it became cold and then lyophilized (Labconco FreeZone 4.5). The powder of the concentrated syrup was stored at −18°C until analyses.
The powder of the concentrated syrup was weighed each day for each animal experiment after being adjusted to 0.2 ml of phosphate-buffered saline (PBS) and filtered to 100 and 200 mg/kg/day C. mas extract for experimental groups and then injected intraperitoneally.
Total phenolic and flavonoid contents
Total phenols were estimated as gallic acid equivalents, expressed as mg of gallic acid/gextract.100.0 μL of the sample was transferred in a 10.0 mL volumetric flask, to which 500.0 μL undiluted Folin–Ciocalteu reagent was added subsequently. After 1 min, 1.5 mL 20% (w/v) Na2 CO 3 was added and the volume was made up to 10.0 mL with H2O. After 2 h incubation at 25°C, the absorbance was measured at 760 nm and compared to a gallic acid calibration curve. The data are presented as the average of triplicate analyses.
Total flavonoid analysis of the extracts was made by modifying the method used by Zhishen et al., Accordingly, 1 mL extract with 0.3 mL of 5% NaNO2 solution mixed at t = 0 min, after addition of 0.3 mL of a 10% AlCl3.6H2O solution at t = 5 min., 2 mL of 1 M NaOH solution and 2.4 mL of water was added at t = 6 min. At 510 nm, the absorbance against the blind was measured. The total flavonoids contained in the extracts were calculated as catechin equivalents in mg CA/gextract. Calibration curve of catechin was prepared in the same manner using ethanol. C. mas total phenolic and flavonoid contents are shown in [Table 2]. The anticarcinogenic effect of Cornelian cherry was evaluated by cell counting in this liquor. All groups were taken under general anesthesia using ketamine (50 mg/kg) and xylazine (15 mg/kg). In addition, tissues from the abdominal organs of the liver, spleen, kidney, stomach, small intestine, and large intestine were examined histopathologically in order to evaluate the effect of EAT cells on the organs. For this, the tissues were evaluated by routine histological procedures and by staining with hematoxylin and eosin.
|Table 2: Total phenolic and flavonoid contents of Cornus mas fruit syrup|
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In vitro experimental group
The effects of C. mas fruit syrup doses of 50, 100, and 250 μg/ml on EAT cells for cell culture were investigated in the study. C. mas fruit syrup was dissolved in PBS. Culture medium was prepared with 20% fetal bovine serum, 80% Dulbecco's middle eagle medium (DMEM) and 1 ml penicillin/streptomycin: 10,000 units/ml penicillin and 10 mg/ml streptomycin. 96-well plates were divided into four groups as tumor control, 50 μg/ml, 100 μg/ml, and 250 μg/ml Cornelian cherry extract treatment groups as 24 wells in each group. 104,000 EAT cells were seeded in each well, and the effect of different doses of C. mas fruit syrup was assessed by alive and dead cell counts 3 and 24 h later.
Cell count procedure
The EAT cells that were in the suspension form in the medium in each well were laced in the Eppendorf tube. 100 μl trypan blue solution was added to the EAT cells and pipetted. The Thoma slide was placed on a smooth surface, and the lamellae were covered on the counting area frame to which the lamellae would be glued. 50 μl cell solution was pipetted from the middle line to the counting area by placing the edge of the pipet to the point where the slide and the lamellae join in the counting area which is in the middle of the channels placed on both sides of the Thoma slide; the objective of the microscope was adjusted to ×40. The cells were counted one by one.
The IBM SPSS Statistics version 22.0 (IBM Inc., ILL, USA) program was used for statistical analysis. The Kruskal–Wallis tests were applied in weight-related analyzes between groups and in dose comparison in in vitro experimental groups. Statistical analysis was significant when P < 0.05. In variables with normal distribution, two-way analysis of variance was performed on repeated measures for groups of time-based comparisons.
| Results|| |
Body weight changes of ascites tumor groups during the experiment
When the daily body weights of the animals belonging to the groups were examined during the experiment (9 days), it was observed that there was an increase in weight in the tumor control group and C. mas fruit syrup treatment groups. It was observed that the tumor control group had a greater increase than the treatment groups [Table 3]. During the experiment, the circumference of the abdomen of the animals in the groups was measured. The maximum abdominal circumferential extension length was measured as 12 cm in the tumor control group [Table 4].
At the end of the experiment, the cells in the ascitic fluid from the animals that constituted the positive control and treatment groups were stained with trypan blue and counted. The average number of viable cells in 1 ml ascitic fluid was 66.50 × 106 in the positive control group, 56.09 × 106 in the group administered 100 mg/kg C. mas fruit syrup, and 48.38 × 106 in the group administered 200 mg/kg C. mas fruit syrup.
After the experiment, EAT cells in the kidney, liver, and spleen tissues belonging to the healthy, tumor control, and treatment groups were seen as invasive in the connective tissue capsule. However, EAT cells were invasive in the tunica serosa layer of the stomach and thin and large intestine tissues, and the EAT cells found here had large hyperchromatic nucleus and eosinophilic cytoplasm. While the EAT cells showed a dense aggregation in the tissues from the animals belonging to the tumor control group, they were observed as small and scattered around the connective tissue capsule in the treatment groups [Figure 1], [Figure 2], [Figure 3], [Figure 4], [Figure 5].
|Figure 1: Expansion in the abdominal region due to the accumulation of ascites in the Ehrlich ascites tumor cell given animal|
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|Figure 2: Histopathological findings of the kidney tissue (a) Negative control group. (b) Tumor control group. (c) Tumor and 100 mg/kg Cornus mas fruit syrup applied group. (d) Tumor and 200 mg/kg Cornus mas fruit syrup applied group (H and E, ×20)|
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|Figure 3: Histopathological findings of the tissues taken from the middle tract of the large intestine in the healthy control and treatment groups. (a) Negative control group. (b) Tumor control group. (c) Tumor and 100 mg/kg Cornus mas fruit syrup applied group. (d) Tumor and 200 mg/kg Cornus mas fruit syrup applied group (H and E, x10, x20)|
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|Figure 4: Histopathological findings of the liver tissue. (a) Negative control group. (b) Tumor control group. (c) Tumor and 100 mg/kg Cornus mas fruit syrup applied group. (d) Tumor and 200 mg/kg Cornus mas fruit syrup applied group (H and E, ×20)|
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|Figure 5: Histopathological findings of the tissues taken from the middle tract of the small intestine in the healthy control and treatment groups. (a) Negative control group. (b) Tumor control group. (c) Tumor and 100 mg/kg Cornus mas fruit syrup applied group. (d) Tumor and 200 mg/kg Cornus mas fruit syrup applied group (H and E, ×20)|
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In vitro effect of Cornus mas fruit syrup applied on Ehrlich ascites tumor cells
The effects of different doses of C. mas fruit syrup on EAT cells on live and dead cell counts after 3- and 24-h incubation were evaluated. After 3- and 24-h incubation times, counts showed that the largest number of dead cells was in the group given 100 μg/ml C. mas fruit syrup. Obtained numerical values as average cell number and standard deviation are given in [Table 5].
|Table 5: Values of average living and dead cell numbers calculated in in vitro experimental groups|
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| Discussion|| |
Induced cancer models and cell lines obtained from tumors are used frequently in studies conducted on cancer. One of these models is the EAT model. Although EAT model is one of the animal tumors induced empirically, it has been the subject matter of many other studies. The EAT model, which was initially developed in a female mouse as spontaneous breast adenocarcinoma, was made into a form that could be used in empirical tumor models after being transplanted subcutaneously from mice to mice by Ehrlich and Apolant (1905). Some of the studies conducted on EAT are conducted on benefiting from the plants that may be used for treatment purposes to obtain possible effects on treatment.,,
In the present study, 100 and 200 mg/kg C. mas fruit syrup was administered i. p. as the treatment dose to the groups in which i.p EAT cells were induced. The highest increase in animal weights was detected in the tumor control group, and the weight increase was determined to be less in treatment groups. EAT cell communities with eosinophilic cytoplasm in different shapes with large hyperchromatic nucleus around the tissue in the tumor control group after the histopathologic examination in the small and large intestine tissues, kidney, liver, spleen, and stomach tissues taken from the tumor-positive and treatment groups. In the group in which EAT was applied together with high-dose C. mas fruit syrup, it was observed that the EAT cells were not as intense as they were in the tumor control group. In this group, the structures of the tissues showed normal histologic properties. In the group to which 100 mg/kg C. mas fruit syrup was administered, it was observed that there were more EAT cell connective tissue capsules when compared with the other treatment group. In the literature, when 1 × 106 EAT cell suspension was injected subcutaneously to the host mice, it was reported that ascites tumor was formed at a measurable level after 1-week duration. In our study, 1 × 106 EAT cells were injected i. p. When the EAT cells were counted in the fluids taken from the animals after the trial, it was observed that the number of the EAT cells was reduced in the group to which 200 mg/kg C. mas fruit syrup was applied. In our study, it was determined in the counts after the 3- and 24-h incubations in the EAT cell line that the average number of the dead cells was less in the group to which 100 μg/ml C. mas was administered when compared with the control group and that this difference was significant at a statistical level (P < 0.05).
Alavian et al. conducted a study and examined the serum biomarkers of C. mas in male mice in which hepatotoxicity was induced and administered it orally for 14 days as 200 and 500 mg C. mas. They reported that the liver functions were preserved and membrane integrity was ensured in the group to which C. mas was administered as 200 mg. Francik et al. conducted a study and investigated the neuroprotective effect of C. mas on the brain tissue. They added C. mas dust at a rate of 10% to the daily rations of the study groups and reported that the catalase activity decreased. Zarei et al. investigated the effect of C. mas extract on the fertilization potential in male mice that were treated with methotrexate. They gave 250, 500, and 1000 mg/kg oral C. mas daily to the study groups and reported that sperm damage was reduced in the group to which they gave 1000 mg/kg when compared with the control group. In the study conducted by Forman et al., they investigated the antiproliferative activities of water infusion from C. mas L. leaves and measured the antiproliferative effects that depended on time (24, 48, and 72 h) of 50–750 μg/mL C. mas. Savikin et al. examined the cytotoxicity and antioxidant properties of methanol extracts of the leaves of C. mas in human breast adenocarcinoma cell lines. They reported the total phenol amount in the C. mas flower as 181.7 ± 6.9 and as 56.9 ± 3.2 in the leaves. They also reported the apoptotic effects of 200 μg/ml C. mas. In their study, Bahman et al. applied 20 μg/ml C. mas L. after 3- and 34-h incubation in the human breast cell line and reported 81.85% suppression in the growth of the cell line. Gayatri et al. investigated Sphaeranthus amaranthoides on EAT cells in in vitro conditions. They reported that the cells were suppressed at a rate of around 82% in the EAT cell line in the group to which they applied 15 μM treatment and that the treatment caused a reduction in cell line. Ceylan et al. conducted a study and investigated the effects of highbush cranberry (Viburnum opulus) on empirical cancer induced in mice with EAT cells. They reported that the EAT cells caused metastasis in the liver and kidney tissues in the tumor control group, and there was metastasis in the treatment groups; however, EAT cell communities were not as intense as in the control group around the tissue capsule. In the study conducted by Facchini et al., they investigated the effects of polysaccharide fractions of Pleurotus ostreatus (a fungus species) on the mice to which 5 × 106 EAT cells were administered intraperitoneally. They reported that there was tumor inhibition at a high level. Ozaslan et al. investigated the antitumoral effects of Plantago major plants in Balb/C mice in which EAT was induced in in vitro conditions. They applied 1 × 106 EAT cells intraperitoneally to the study groups.
| Conclusion|| |
In our study, it was determined that C. mas induced apoptosis in the rate by which EAT model was formed. We believe that our study will be a reference to future studies that will be conducted on C. mas.
Financial support and sponsorship
Bozok University Project Coordination Application and Research Center for supporting this project with BAP project number 6602-TF/17-59.
Conflicts of interest
There are no conflicts of interest.
| References|| |
Hanafy ZE. Ginger extract antimutagens as cancer chemopreventive agent against ehrlich ascites carcinoma. Acad J Cancer Res 2009;2:61-7.
Merlo LM, Pepper JW, Reid BJ, Maley CC. Cancer as an evolutionary and ecological process. Nat Rev Cancer 2006;6:924-35.
Baytop T. Treatment with plants in Turkey, Past and Present. 2nd
ed. Turkey: Nobel Tıp; 1999. p. 269.
Yilmaz KU, Zengin Y, Ercisli S, Serce S, Gunduz K, Sengul M, et al
. Some selected physico chemical characteristics of wild and cultivated blackberry fruits (Rubus fruticosu
L.) from Turkey. Rom Biotechnol Lett 2009;14:4152-63.
Tuzlacı E, Doǧan A. Turkish folk medicinal plants, IX: Ovacık (Tunceli). Marmara Pharm J 2010;14:136-43.
Dinda B, Kyriakopoulos AM, Dinda S, Zoumpourlis V, Thomaidis NS, Velegraki A, et al. Cornus mas
L. (cornelian cherry), an important European and Asian traditional food and medicine: Ethnomedicine, phytochemistry and pharmacology for its commercial utilization in drug industry. J Ethnopharmacol 2016;193:670-90.
Yilmaz KU, Ercisli S, Zengin Y, Sengul M, Kafkas EY. Preliminary characterisation of Cornelian cherry (Cornus mas L.
) genotypes for their physico-chemical properties. Food Chem 2009;114:408-12.
Celep E, Aydın A, Kırmızıbekmez H, Yesilada E. Appraisal of in vitro
and in vivo
antioxidant activity potential of cornelian cherry leaves. Food Chem Toxicol 2013;62:448-55.
Ozaslan M, Karagoz I, Kilic I, Güldür M. Ehrlich ascites carcinoma. Afr J Biotechnol 2011;10:2375-8.
Yılmaz S, Ülger H, Ertekin T, Yay A, Nisari M, Alpa Ş, et al
. Investigating the anti-tumoral effect of curcumin on the mice in which Ehrlich ascites and solid tumor is created. Iran J Basic Med Sci 2019; 22:418-425.
Zhishen J, Mengcheng T, Jianming W. The determination of flavonoid contents in mulberry and their scavenging effects on superoxide radicals. Food Chem 1999;64:555-9.
Singleton VL, Orthofer R, Lamuela RM. Analysis of total phenols and other oxidation substrates and antioxidants by means of folin-ciocalteu reagent. Method Enzymol 1999;299:152-78.
Berrington D, Lall N. Anticancer activity of certain herbs and spices on the cervical epithelial carcinoma (HeLa) cell line. Evid Based Complement Alternat Med 2012;2012:564927.
Kaleoǧlu Ö, İşli N. Ehrlich ascites tumour. Med J 1977;40:978-84.
Ehrlich P. Apolant H. Beobachtungen uber maligne mausentumoren. Berl Klin Wochenschr 1905;42:871-4.
Alavian SM, Banihabib N, Es Haghi M, Panahi F. Protective effect of Cornus mas
fruits extract on serum biomarkers in CCl4-induced hepatotoxicity in male rats. Hepat Mon 2014;14:e10330.
Francik R, Kryczyk J, Krośniak M, Berköz M, Sanocka I, Francik S, et al.
The neuroprotective effect of Cornus mas
on brain tissue of wistar rats. ScientificWorldJournal 2014;2014:847368.
Zarei L, Sadrkhanlou R, Shahrooz R, Malekinejad H, Eilkhanizadeh B, Ahmadi A, et al.
Protective effects of Vitamin E and Cornus mas
fruit extract on methotrexate-induced cytotoxicity in sperms of adult mice. Vet Res Forum 2014;5:21-7.
Forman V, Haladová M, Grančai D, Ficková M. Antiproliferative activities of water infusions from leaves of five Cornus
L. Species. Molecules 2015;20:22546-52.
Savikin K, Zdunic G, Jankovic T, Stanojkovic T, Juranic Z, Menkovic N, et al
. In vitro
cytotoxic and antioxidative activity of Cornus mas
and Cotinus coggygria
. Nat Prod Res 2009;23:1731-9.
Gayatri S, Maheswara Reddy CU, Chitra K, Parthasarathy V. Assessment of in vitro
cytotoxicity and in vivo
antitumor activity of Sphaeranthus amaranthoides
burm.f. Pharmacognosy Res 2015;7:198-202.
Ceylan D, Aksoy A, Ertekin T, Yay AH, Nisari M, Karatoprak GŞ, et al.
The effects of gilaburu (Viburnum opulus
) juice on experimentally induced Ehrlich ascites tumor in mice. J Cancer Res Ther 2018;14:314-20.
Facchini JM, Alves EP, Aguilera C, Gern RM, Silveira ML, Wisbeck E, et al.
Antitumor activity of Pleurotus ostreatus
polysaccharide fractions on Ehrlich tumor and sarcoma 180. Int J Biol Macromol 2014;68:72-7.
Ozaslan M, Didem Karagöz I, Kalender ME, Kilic IH, Sari I, Karagöz A, et al
. In vivo
antitumoral effect of Plantago major
L. Extract on balb/C mouse with Ehrlich ascites tumor. Am J Chin Med 2007;35:841-51.
[Figure 1], [Figure 2], [Figure 3], [Figure 4], [Figure 5]
[Table 1], [Table 2], [Table 3], [Table 4], [Table 5]