Printer Friendly

An Overview about Adverse Hepatic Effects of the Plants Used in Turkey/Turkiye'de Kullanilan Bitkilerin Karaciger Uzerine Olumsuz Etkilerine Genel Bir Bakis.

Physical health is one of the main components of life expectancy. Not only curative methods but also preventive and complementary modalities gain importance in maintaining health. At this point, populations in different parts of the world refer to various alternative and complementary methods (ACTMs) besides the modern medicinal techniques to maintain their health. Among ACTM, herbal preventive and treatment facilities are extensively used [1, 2]. However, studies indicate that plants are generally used without the knowledge and control of professional healthcare practitioners [3-6].

The belief that herbal applications do not have negative effects on the health, efficacy, safety, and drug interactions of many of the commonly used herbal modalities is not scientifically known and/or approved [7]. Moreover, use of plants in combined preparations has a complicated impact on human health [7, 8]. Till date, multiple studies have reported on the negative effects of uncontrolled herbal products on health [9-12]. Among these, plant and liver toxicity interactions are the most important ones [9, 11]. The liver has a critical role in many physiological functions, such as metabolism of nutrients, regulation of blood volume, synthesis of plasma proteins, support of the immune system, endocrine control of some mechanisms, lipid and cholesterol homeostasis, and breakdown of xenobiotic substances like drugs [13]. Liver failure can cause various health problems with significant morbidity and mortality [14]. It has been determined that the rate of herb-induced liver injury (HILI) may have a ratio of 25%-30% among all the drug-induced liver injury (DILI) cases [15, 16]. HILI ratios have been reported as 35.7% in China, 24.4% in South Korea, 8.1% in Western nations, and 5.4% in South-East Asia [16]. Plant usage as an alternative and complementary treatment method is also very common in Turkey [17, 18]. Some plants, which have been reported to cause liver damage, are traditionally consumed in the country, whereas some plants from the other parts of the world can also be easily supplied by the widespread herbal product market [16, 18]. There exist various case reports and interdisciplinary studies about the plants and their adverse hepatic effects in Turkey [19-22]. However, there is still a significant lack of knowledge about herb usage as an alternative health method, both in the general population and among health care professionals [23]. It is important to be aware of the potential side effects of the commonly used herbal products to prevent undesired outcomes.

Therefore, we decided to evaluate the adverse hepatic effects of the commonly used plants in Turkey. The commonly used plants in Turkey have been determined by detailed analyses of the herbalists' studies performed in different parts of Turkey, such as Konya, Canakkale, Adana, and Istanbul [17, 24-26]. After listing the names of the plants in every article, duplications were determined and removed from the list, which finally included more than 400 plants. Every plant in the list was searched with "liver," "liver injury," and "hepatotoxicity" keywords on PubMed and Science Direct databases. There was no study about 98 of the listed plants, but there existed hepatoprotective and/or no liver injury studies about the majority of the plants. Hence, 27 of the listed plants have been reported to have an adverse liver injury or hepatotoxic effects in vivo and/or in vitro. Normally, there exist more than 60 plants (Chaparral, Corydalis yanhusuo, Jin Bu Huan, Polygonum multiflorum, Psoralea corylifolia, Rheum officinale, Syo Saiko, and so on) in literature that have been reported to have HILI potential [1, 7, 16, 18, 27]. However, because this study was conducted according to the herbalists' reports about the plants used in Turkey, the review has been performed with the determined plants in the list. At the end of the search, studies about the adverse hepatic effects of the determined plants, which can be summarized as single-plant effect, plant-plant interaction, plant-drug interaction, and the effects of plants on the liver through different systems, have been evaluated.

Clinical and Research Consequences

The identified plants and the determined in-vivo and/or in-vitro liver injury and/or hepatotoxicity studies about them with the detected injury pathways are as follows:

Acorus calamus L. (Hazanbel, Egir in Turkish)

Acorus calamus root has antimicrobial, antiviral, antifungal, and anti-inflammatory effects and is used for stress disorders, asthma, itching, ulcers, and rheumatic diseases [24, 25, 28]. Moreover, it is widely used for its neuroprotective and antiepileptic effects [29, 30]. Methanolic extract of Acorus calamus is known to have hepatoprotective properties [31]. However, and [beta] asarones, which are found specifically in Acorus (Araceae), have been determined to cause structural alterations, triacylglycerol accumulation, and protein synthesis inhibition in cultured rat hepatocytes and had hepatotoxic and carcinogenic potential in experimental studies [30, 32]. Therefore, it is advised that the asarone ingredient of daily food products are to be controlled, and a maximum of ~2 [micro]g/kg body weight/day asarone exposure from herbal products is recommended in European countries [30].

Aloe vera L. (Aloe, Sari Sabir in Turkish)

Aloe vera has known antioxidant, anti-inflammatory, and immune enhancement effects, and its leaves are widely used in skin diseases and cosmetology [17, 18, 25]. Although aloe vera has been shown to have hepatoprotective activity with its antioxidant capacity [33, 34], there are controversial studies about the plant [27, 35]. Aloe-emodin (AE) is the primary bioactive anthraquinone in aloe vera, and it has been determined to inhibit the transport activity of the multidrug resistance protein 2 (ABCC2/MRP2) and downregulate its expression. A study by Liu et al. [36] reported that ABCC2 degradation induces experimental hepatotoxicity. In recent studies, AE has been found to activate nuclear factor-B inflammatory pathway and P53 apoptosis pathway from the mRNA and protein levels [35], inhibit cell proliferation, and induce apoptosis in the hepatic cells by reactive oxygen species generation (probably with Fas death and the mitochondrial pathway involvement) [37]. Teschke et al., [27] in their detailed herbal hepatotoxicity case analysis research, have reported aloe to be "highly probable" for hepatocellular injury according to the scale of the Council for International Organizations of Medical Sciences (CIOMS).

Cannabis sativa L. (Kenevir in Turkish)

Cannabidiol in Cannabis sativa is widely used for its anticancer, anti-inflammatory, antiepileptic, sleep promoting, relaxing, antioxidant, and painkiller effects [17, 38]. C. sativa is considered illegal in many parts of the world; however, cannabidiol usage as a treatment modality is increasing in the recent years [39]. Huestis et al. [40] have reported various probable drug-drug interactions with cannabidiol usage in which aspartate aminotransferase (AST) and/or alanine aminotransferase (ALT) levels have increased 3-12-fold, and worsened chronic cholecystitis cases have been indicated. In addition, in a recent experimental study, Ewing et al. [38] determined C. sativa to have cholestatic hepatotoxic outcome in mice. Further research about the hepatic effects of C. sativa will be valuable to understand its effects on liver functions.

Camellia sinensis (Yesil cay in Turkish)

Camellia sinensis, also known as "green tea," has stimulant, diuretic, and constipatory effects. It is widely grown and consumed in Turkey [18, 24]. Apart from its antihepatotoxic, antioxidant, and anticancer (breast, ovarian, and colorectal) effects, green tea's potential hepatotoxic effect, especially in high doses, has been the subject of recent research [16, 27, 41]. Green tea increases the catechin bioavailability and decreases cytochrome P450 (CYP) 3A4 activity [16, 26, 42]. The activity of the CYP450 enzyme family is important for hepatic drug metabolization, and these results indicate that the use of C. sinensis is a risk factor for herb-drug interaction. Green tea has been reported to be "probable" and "highly probable" for hepatocellular injury according to the causality reports of different cases, and people have been warned about the undesired effects of repeated oral intake of green tea extracts in high doses (140 mg to -1,000 mg/day based on individual differences) during fasting [27, 42].

Cassia sp. (Sinameki in Turkish)

Cassia (also known as senna) leaves have diuretic, vasodilatory, and anti-eczematous properties and are widely used for constipation [17, 18]. Cassia decreases CYP3A4 levels, and multiple studies have reported senna hepatotoxicity, which may be related to the toxic metabolites of anthraquinone in senna [16, 26, 27, 43]. Turtay et al. [22] in Turkey have reported "probable" senna hepatotoxicity with a 100-200-fold increase in the hepatic markers and multiorgan failure. Causali ty evaluations of the plant are generally admitted as "probable" according to different reports [16, 27].

Citrus sp. (Turuncgillerin Turkish)

Citrus species are popularly consumed in many parts of the world as well as in Turkey [17, 44]. In a recent study, Xia et al. [44] determined that raw orange intake caused an increase in nonalcoholic fatty liver disease prevalence, and the authors associated the situation with the high fructose content of the plant. However, there exist totally disparate experimental studies, which report the use of Citrus sinensis to be effective in reducing liver fat and insulin resistance (mainly via the antioxidant properties of the ingredient phenolic compounds) [45, 46]. Further research about C. sinensis and liver interaction will be required to understand the detailed mechanism.

Chelidonium majus L. (Kirlangic otu, Kasinti otu, Hilaliye in Turkish)

Parts of Chelidonium majus (greater celandine) that are above the ground have spasmolytic, analgesic, sedative, bile secretion enhancing, diuretic, and anticancer effects and are widely used in Turkey [17, 18, 25, 28, 47]. Apart from its positive curative effects, high hepatotoxicity and potential for liver injury have also been reported [27, 47]. Sanguinarine, coptisine, and chelerythrine have been identified as the main hepatotoxic constituents of C. majus in a recent study [48]. C. majus has been reported to be "probable" and "highly probable" for hepatocellular injury according to the CIOMS scale [27, 47].

Chondrus crispus (Deniz kadayifi in Turkish)

Chondrus crispus has anticoagulant and antilipidemic properties and is used in ulcer treatment. Although it does not grow in Turkey, it is sold in the country [49]. No research about the hepatotoxic potential of the plant could be determined in the scanned databases. However, it has been reported to have hepatotoxic effect in a study by Byeon et al., [16] in which they conducted a general systematic evaluation of the research with the plant's hepatotoxic causality reports.

Chrysanthemum cinerariaefolium vis. (Dalmacya papatyasi, Krizantem in Turkish)

Chrysanthemum cinerariaefolium is used as a natural pesticide; in particular, the 3 natural pyrethrin derivatives of the plant, i.e., deltamethrin, permethrin, and alphacypermethrin, are widely used as insecticides [50, 51]. Chrustek et al. [52] reported deltamethrin to have potential liver injury effects by increasing ALT and AST activity and decreasing lipid peroxidation concentration in animals. Although pyrethroids are admitted to be safe and nontoxic, there exist various life-threatening cases related to the use of C. cinerariaefolium, and as a widely used plant, further research is required into its potential hepatic effects [52].

Crocus sativus: Saffron (Safran in Turkish)

Crocus sativus flowers and stalks are used for nervous system stimulation, appetizing, and menstrual and digestive disorders [17, 28]. Although it has been evaluated as useful for liver diseases through its antioxidant, antiapoptotic, and anti-inflammatory effects and is accepted as a candidate for treatment of hepatocellular carcinoma, Byeon et al. [16] reported that saffron is among the plants that probably cause liver damage [53-55]. Further research about saffron will be valuable in understanding its effects on the liver.

Datura stramonium L. (Tatula Boru Cicegi in Turkish)

Leaves, flowers, and seeds of Datura stramonium are used for pain relief and shortness of breath [28]. In a recent experimental study, Ogunmoyole et al. [56] reported D. stramonium to increase the ALT, AST, malondialdehyde (MDA), and alkaline phosphatase (ALP) levels in serum. Although the hepatotoxic molecular mechanism of D stramonium seems to be unclear, there exist cases with "highly probable" causality assessments in Turkey, and there is a need for detailed study about its hepatotoxic effects [57, 58].

Ecballium elaterium (Aci Dulek, Esek Hiyari in Turkish)

The fruits, seeds, and roots of Ecballium elaterium are used externally in chronic skin diseases and rheumatic pain, and the juice of the fruit is widely applied through inhalation in sinusitis [24, 59]. Although in an experimental study, El Naggar et al. [60] showed E. elaterium juice to have hepatoprotective and anti-inflammatory effects, a case of a patient with cholestatic hepatitis with hyperbilirubinemia, increased ALP and normal transaminase levels after consumption of E. elaterium has been reported in Tunisia [61].

Epimedium sp (Azgin Teke Otu, Kesiskulahi in Turkish)

Epimedium plant leaves have antidiabetic and antiosteoporotic properties and are widely used as an aphrodisiac [17, 62-64]. The main components of Epimedium are 2"-O-rhamnosyl icariside II, baohuoside-I, and baohuoside-II, which are thought to have hepatotoxic potential. Zhang et al., [62] in an in-vitro study, determined baohuoside-I to be the main hepatotoxic component, which increased oxidative stress and induced apoptosis.

Ginkgo biloba L. (Mabet Agaci, Ginkgo in Turkish)

Apart from its ability to enhance mental concentration, Ginkgo biloba leaves are used for the treatment of Alzheimer's disease, dizziness, and cardiovascular problems [25, 28, 65]. Antioxidant, anti-inflammatory, and antitumor benefits of the plant had led to its widespread use among the population [65]. There are several studies about its hepatoprotective effects [66, 67]; however, there also exist contradictory results. G. biloba has been observed to increase hepatocellular carcinoma in mice, and its leaf extract has been classified as a possible group 2B human carcinogen by the International Agency for Research on Cancer in the recent times [68].

Ginkgolic acids (GAs) are the major components of G. biloba extracts. GAs (15:1) have been reported to increase the ALT and AST levels, increase glutathione-S-transferase and xanthine oxidase activity, cause severe oxidative stress, and induce liver damage [69]. Qing-Qing et al. [70] showed that GA (17:1) causes hepatotoxicity through CYP1A- and CYP3A-mediated metabolism. Furthermore, G. biloba induces CYP2C19 pathways in the liver. Hence, the use of G. biloba could be a potential risk factor for drug interactions [26, 71].

Gymnema sylvestre (Retz.) Schult. (Cinnema otu, Gimneya in Turkish)

Gymnema sylvestre mainly grows in South-East Asia and is widely used for its sugar masking, antidiabetic, and hypolipidemic effects [28, 72, 73]. Although the studies about G. sylvestre are generally about the curative effects of the plant, a case of a patient with diabetes with acute hepatic toxicity was reported by Shiyovich et al. [74]. An in-vitro study with rat liver microsomes by Vaghela et al. [75] showed gymnemic acids to inhibit CYP450 activity (CYP3A4-mediated testosterone 6[beta]-hydroxylation and CYP2C9-mediated flurbiprofen 4'-hydroxylation) strongly in a dose-dependent manner. In addition, Rammohan et al. [76] determined that G. sylvestre extracts inhibit CYP450 1A2, 3A4, and 2C9 activity, and these effects of G. sylvestre are thought to be a potential factor for herb-drug interactions.

Hypericum perforatum L.: St John's wort (Binbirdelikotu, sari kantaron, kan otu, mayasil otu in Turkish)

Flowers and branches of Hypericum perforatum are used worldwide because of their antiviral, antibacterial, anti-inflammatory, antirheumatic, sedative, antidepressive, and anxiolytic efficacy [17, 18, 24, 26, 28, 77]. However, St John's wort has also been detected to have widespread side effects, including gastrointestinal symptoms, dizziness, confusion, fatigue, and allergic skin reactions. Although there is no report about its hepatotoxic effect when used alone, there are many studies about St John's wort's induction of the CYP450 family and reducing the effect of plasma concentrations or efficacy of conventional drugs [16, 26, 77-80]. Piccolo et al. [77] reported a 61-year-old woman with a 20-fold increase in aminotransferase levels after using St John's wort. The study by Piccolo et al. [77] reports the Roussel Uclaf Causality Assessment Method score of St John's wort to be "probable," especially for drug-plant and plant-plant interactions [78-80].

Ilex paraguariensis (Mate in Turkish)

The leaves and branches of Ilex paraguariensis are widely used for mental and physical fatigue, headache, and rheumatic pain [17, 24, 25]. No hepatotoxic effect of I. paraguariensis has been determined yet; however, Rodriguez et al. [81] reported mate-intake-related acute hepatitis in a 21-year-old with increase in the bilirubin (32.9 mg/dL), ALT (2,685 U/L), AST (1,842 U/L), and ALP (129 U/L) levels and a "highly probable" causality score.

Mentha piperita L. (Nane in Turkish):

Leaves and oil of Mentha piperita are widely used for their analgesic, carminative, spasmolytic, and antibacterial activities [17, 18, 24]. Its main component is menthol, and there is no report about any adverse hepatic effects of menthol. However, an experimental study on pulegone, which is found in low concentrations in the oil extracts of the plant, found it to be hepatotoxic. Moreover, Douros et al. [79] reported the causality score of liver injury as "possible" in a Berlin case-control surveillance study of M. piperita.

Momordica charantia (Kudret Nari in Turkish)

Momordica charantia is widely used in diabetes, hyperlipidemia, stomach disorders (especially ulcers), menstrual problems, and vaginal disorders [17, 28]. Although there are studies about the positive effects of its antioxidant capacity on the liver [82, 83], Byeon et al. [16] reported the plant to cause liver injury. Further detailed research into the hepatic effects of M. charantia will be valuable to understand its safety.

Panax pseudoginseng: Panax ginseng (Ginseng in Turkish)

Panax ginseng is used for its anticarcinogenic effect [18]. Although there are several studies about its hepatoprotective effects [84, 85], Byeon et al., [16] in their detailed systematic review, reported it to cause more than 10 cases of liver injury. Multidisciplinary studies about the plant's effect on the liver would be important to determine its usage modalities.

Ranunculus ficaria L. (Basurotu in Turkish):

Seeds, flowers, leave, and roots of Ranunculus ficaria are used specifically in hemorrhoid treatment [17, 18]. Yilmaz et al. [19] reported a 36-year-old patient with hepatocellular injury with a 5-fold increase in transaminase levels and no other hepatic disease history, which rapidly improved after the discontinuation of R. ficaria and was considered to have "probable" causality according to the CIOMS scale.

Ricinus communis L. (Hint Yagi Bitkisi, Kene Otu in Turkish)

Ricinus communis is used for its laxative effect [17, 18]; however, Kumar et al. [86] showed ricin (a glycoprotein of R. communis) to have serious hepatotoxic potential with an increase in the hepatic markers in an experimental study. In addition, Palatnick and Tenenbein [87] reported a case of reversible R. communis hepatotoxicity in a 20-month-old child with a "possible" causality assessment.

Rosmarinus officinalis L. (Biberiye, Kus Dili in Turkish)

Rosmarinus officinalis leaves have anticancer, antiadipogenic, anti-inflammatory, antiseptic, spasmolytic, and diuretic effects. They are also used widely for arrhythmia and migraine [17, 18, 24, 28, 88]. Several studies exist about the hepatoprotective effects of R. officinalis [89, 90]; however, Dickmann et al. [88] reported that carnosic acid in the plant causes hepatotoxicity in human hepatocytes. In their study, they showed carnosic acid to inhibit CYP2C9- and CYP3A4- catalyzed reactions and induce CYP2B6 and CYP3A4 mRNA and enzyme activity in a dose-dependent manner. Hence, this plant needs to be studied for its potential hepatic adverse effects.

Salvia officinalis L. (Adacayi in Turkish)

Leaves, flowers, and roots of Salvia officinalis are widely used in upper and lower respiratory tract infections, inflammatory wounds, epilepsy, indigestion, and abdominal pain in Turkey [17, 18, 24]. There are numerous studies about the hepatoprotective effects of S. officinalis [91,92]. However, in an experimental study, Lima et al. [93] showed that S. officinalis increased CCl4-induced hepatotoxicity in mice and may have an indirect liver injury effect by herb-drug interactions.

Teucrium polium (Aci yavsan in Turkish):

Teucrium polium (mount germander) leaves are used for convulsions, digestive system diseases, chronic bronchitis, gout, asthma, diabetes, and rheumatic pain [17, 28]. In Turkey, T. polium is widely used during pregnancy and lactation for gastrointestinal complaints relieving and increasing breast milk [21]. Although there are studies about its hepatoprotective effects, it has also been stated to cause severe injury cases [16, 26, 27, 94]. In Turkey, Dag et al. [21] reported 3 different patients with severe hepatotoxicity, which was related to the use of T. polium during pregnancy and lactation and had increased the transaminase (30-60-fold), ALP (2-5-fold), [gamma]-glutamine transferase (GGT) (2-3-fold), and bilirubin (12-20-fold) levels. In the study, they pointed out that postpartum physiological changes may play a role in liver injury. In another study, Dag et al. [95] indicated that T. polium was the "highly probable" cause of 7/10 HILI cases.

Trigonella foenum: Fenugreek (Cemenotu, Boyotu in Turkish)

Trigonella foenum is known for its antibacterial and hypoglycemic effects, and it is also used in the treatment of acne and constipation [17, 18]. The therapeutic potential of fenugreek polysaccharides has been shown by various studies; however, Byeon et al. [16] reported liver injury related to its use [96, 97]. Therefore, there is a need for further studies about the plant's hepatotoxic effects.

Valeriana officinalis L. (Kedi Otu in Turkish)

Roots and rhizomes of Valeriana officinalis are widely used for their sedative, tranquilizing, hypnotic, hypotensive, antispasmodic, and carminative effects [17, 18, 24]. Vassiliadis et al. [98] reported a 50-year-old patient with acute hepatotoxicity with increased AST (344 IU/L), ALT (564 IU/L), and GGT (72 IU/L) levels and mild fibrosis. The hepatic effect was thought to be related to the inhibition of P450 isoforms CYP3A4, CYP2D6, and CYP2C19 by the use of V officinalis. Furthermore, there exist various reports about the plant's hepatotoxic potential, and the causality score of the plant is considered "possible" [16, 71,99].

In conclusion, similar to many of the cultures, the use of plants as an alternative and complementary treatment method is very common in Turkey. However, herbal modalities are generally used without professional health assistance, and this situation has the potential to cause morbidity and mortality [6]. This review aimed to reveal the adverse hepatic effects of the commonly used plants in Turkey. We compiled a list of plants according to herbalists' studies, and the research into each plant was thoroughly evaluated [17, 24-26]. Normally in the literature, there exist more than 60 plants (Chaparral, C. yanhusuo, Jin Bu Huan, P multiflorum, P corylifolia, R. officinale, Syo Saiko, and so on) with HILI potential [16, 18, 27, 100]. However, at the end of our search, adverse hepatic effects of 27 plants were determined, and they have been discussed in this review according to the results that we obtained. Other plants with HILI potential were carefully looked for in the obtained list of "the plants used in Turkey"; however, because they were not found in the herbalists' studies, they were not included in our study. In addition, case reports about the adverse hepatic effects of some other plants in Turkey such as Papaver rhoeas (Gelincik in Turkish), great fennel (Buyuk Rezene in Turkish), and Teucrium chamaedrys or Germander (Dalak Otu in Turkish) were determined while scanning the databases [20, 101, 102]. This could be owing to the regional herbal medicine approaches in different parts of the country and/or use of the plants by directly gathering from the nature. Hence, further advanced research into the usage culture of plants in the Turkish population would be valuable to obtain a more detailed result.

When the herb and liver interactions were studied, different topics, such as direct liver injury, hepatotoxic effects, cholestatic effects, and drug interactions, confronted the researchers. Many plants used for therapeutic purposes interact with other substances, such as nutrients and drugs, and change the effectiveness of the drugs used, and the liver plays an important role in these interactions [26, 42, 71, 76]. In this review, the hepatic effects of the plants have been evaluated without differentiating the mechanisms mentioned earlier.

Studies show that some plants such as T. polium, Aloe vera, C. sativa, A. calamus, and Cassia sp. have been reported to cause direct hepatic injury hepatotoxicity, and/or cholestatic effects [21, 22, 32, 37, 38, 40, 47]. Another important finding of our study was that potential adverse hepatic effects of many plants, such as A. calamus, Aloe vera, E. elaterium, G. biloba, and R. officinalis, which had been reported to have hepatoprotective activity in various studies, were highlighted [27, 32, 35, 61, 68, 88].

One limitation of this study is that there are only experimental studies about some of the included plants, such as A. calamus, C. cinerariaefolium, Epimedium, R. officinalis, and S. officinalis [31, 52, 62, 88, 93]. Furthermore, there are only a few reports about the adverse hepatic effects of some plants [19, 40, 44, 61, 87].

As mentioned in different parts of this review, the active ingredients, metabolism, and potential interactions of many of the plants used for herbal treatment modalities are yet to be determined. Some of the mentioned studies were experimental and some included human cases. Further and detailed multidisciplinary studies about these plants would be valuable to understand the contradictory results and evaluate the role of plants and hepatotoxicity in treatment modalities.

Peer-review: Externally peer-reviewed.

Conflict of Interest: The author have no conflicts of interest to declare.

Financial Disclosure: The author declared that this study has received no financial support.

Hakem Degerlendirmesi: Dis bagimsiz.

Cikar Catismasi: Yazar cikar catismasi bildirmemistir.

Finansal Destek: Yazar bu calisma icin finansal destek almadigni beyan etmistir.

References

[1.] Dogan O, Avci A. Bitkilerle tedavi ve ilac etkilesimleri. Turkiye Klinikleri journal of Public Health-Special Topic 2018; 4: 49-54.

[2.] Cengiz Z, Budak F. Use of complementary medicine among people with diabetes in eastern Turkey: A descriptive study. Complement Ther Clin Pract 2019; 36: 120-4. [Crossref]

[3.] Oral B, Ozturk A, Balci E, Sevinc N. Aile sagligi merkezine basvuranlarin geleneksel/alternatif tipla ilgili gorusleri ve kullanim durumu. TAF Prev Med Bull 2016; 15: 75-82. [Crossref]

[4.] Karaman E, Senman S, Yildirim Y, Erkin O. The use of herbal supplements by individuals with diabetes mellitus. JPMA. 2018; 68: 587-94.

[5.] Ali-Shtayeh MS, Jamous RM, Jamous RM. Complementary and alternative medicine use amongst Palestinian diabetic patients. Complement Ther Clin Pract 2012; 18: 16-21. [Crossref]

[6.] Yetis G, Kolac T Gurbuz R Yakinci ZD. Determination of the Health Services Vocational School Students' Thoughts and Usage Habits about Herbal Treatment. Int J Sec Metabolite 2017; 4(Special Issue 2): 463-72. [Crossref]

[7.] Robles-Dfaz M, Ortega-Alonso A, Medina-Caliz I, Andrade RJ. Hepatotoxicity by dietary supplements: a tabular listing and clinical characteristics. Int J Mol Sci 2016; 17: 537. [Crossref]

[8.] Yu J, Liu Y, Guo J, Tao W, Chen Y, Fan X, et al. Health risk of Licorice-Yuanhua combination through induction of colonic H2S metabolism. J Ethnopharmacol 2019;236:136-46. [Crossref]

[9.] Zakaria ZA, Mahmood ND, Omar MH, Taher M, Basir R. Methanol extract of Muntingia calabura leaves attenuates CCl 4-induced liver injury: possible synergistic action of flavonoids and volatile bioactive compounds on endogenous defence system. Pharm Biol 2019;57:335-44. [Crossref]

[10.] He S, Zhang C, Zhou B Zhang X, Ye T, Wang R. Herb-Induced Liver Injury: Phylogenetic Relationship, Structure-Toxicity Relationship, and Herb-Ingredient Network Analysis. Int J Mol Sci 2019;20:3633. [Crossref]

[11.] Hudson A, Lopez E, Almalki AJ, Roe AL, Calderon Al. A Review of the Toxicity of Compounds Found in Herbal Dietary Supplements. Planta Med 2018;84:613-26. [Crossref]

[12.] Bruno LO, Simoes RS, de Jesus Simoes M, Castello Girao MJB, Grundmann O. Pregnancy and herbal medicines: An unnecessary risk for women's health-A narrative review. Phytother Res 2018;32:796-810. [Crossref]

[13.] Trefts E, Cannon M, Wasserman DH. The liver. Curr Biol 2017; 6: 1147-51. [Crossref]

[14.] Squires JE, McKiernan P Squires RH. Acute liver failure: an update. Clin Liver Dis 2018; 22: 773-805. [Crossref]

[15.] Oh S), Cho JH, Son CC. Systematic review of the incidence of herbal drug-induced liver injury in Korea. J Ethnopharmacol 2015; 159: 253-6. [Crossref]

[16.] Byeon JH, Kil JH, Ahn YC, Son CC. Systematic review of published data on herb induced liver injury. J Ethnopharmacol 2019; 233: 190-6. [Crossref]

[17.] Kokcu B, Esen O, Uysal i. Medicinal plants sold in Canakkale/Turkey city center herbalists. Biological Divers Conser 2015; 8: 80-91.

[18.] Kalafatcilar OA. K.A.I., Bitkiler ve Saglik -Fitoterapi-. Bitkiler ve Saglik. Vol. 011-1 B. 2011, Izmir: Sidas Ltd. Sti. 486.

[19.] Yilmaz B, Yilmaz B, Aktas B, Unlu O, Roach EC. Lesser celandine (pilewort) induced acute toxic liver injury: The first case report worldwide. World J Hepatol 2015; 7: 285-8. [Crossref]

[20.] Ural O, Satilmis O, Ural C, Dikici N. A case: Acute hepatitis associated with herbal (Teucrium chamaedrys) ingestion. Turk Hij Den Biyol Derg 2011; 68: 135-8. [Crossref]

[21.] Dag M, Ozturk Z, Aydinli M, Koruk I, Kadayifci A. Postpartum hepatotoxicity due to herbal medicine Teucrium polium. Ann Saudi Med 2014; 34: 541-3. [Crossref]

[22.] Turtay MC, Turgut K, Oguzturk H, Gurbuz S, Ince V. Fatal Herb Senna: A Case Report. J Adv Med Pharmaceut Sci 2016; 5: 1-3. [Crossref]

[23.] Renda C, Kaya Yasar Y, Yilmaz E, Sanri H, Dilaver I, Demirtas Y, et al. Aile hekimleri ve eczacilarin bitkisel urun kullanimina yaklasimlari: Trabzon ilinde pilot calisma. Turkiye Aile Hekimligi Dergisi 2018; 22: 14156. [Crossref]

[24.] Tulukcu E, Sagdic O. Konya'da aktarlarda satilan tibbi bitkiler ve kullanilan kisimlari. Erciyes Universitesi Fen Bilimleri Enstitusu Fen Bilimleri Dergisi 2011; 27: 304-8.

[25.] Kayiran SD, Kirici S. Adana (Turkiye) Aktarlarinda Tedavi Amaciyla Satilan Bitkisel Droglar. Kahramanmaras Sutcu Imam universitesi Tarim ve Doga Dergisi 2019; 22: 183-92.

[26.] Dereci S, Akcam M. Cocukluk caginda ilaclara ve bitkisel urunlere bagli gelisen hepatototoksisite. SDU Tip Fakultesi Dergisi: 2015; 34-41.

[27.] Teschke R, Genthner A, Wolff A, Frenzel C, Schulze J, Eickhoff A. Herbal hepatotoxicity: Analysis of cases with initially reported positive re-exposure tests. Dig Liver Dis 2014; 46: 264-9. [Crossref]

[28.] Seckin T. Islevsel Bitki Kimyasi, ed. M. Karatas. Vol. 1. 2014, Ankara: Nobel Akademik Yayincilik. 836.

[29.] Auditeau E, Chassagne F, Bourdy G, Bounlu M, Jost J, Luna J, et al. Herbal medicine for epilepsy seizures in Asia, Africa and Latin America: A systematic review. J Ethnopharmacol 2019; 234: 119-53. [Crossref]

[30.] Patel DN, Ho HK, Tan LL, Tan MMB, Zhang Q, Low MY, et al. Hepatotoxic potential of asarones: in vitro evaluation of hepatotoxicity and quantitative determination in herbal products. Front Pharmacol 2015; 6: 25. [Crossref]

[31.] Ilaiyaraja N, Khanum F. Amelioration of alcohol-induced hepatotoxicity and oxidative stress in rats by Acorus calamus. J Diet Suppl 2011; 8: 331-45. [Crossref]

[32.] Haupenthal S, Berg K, Grundken M, Vallicotti S, Hemgesberg M, Sak K, et al. In vitro genotoxicity of carcinogenic asarone isomers. Food Funct 2017; 8: 1227-34. [Crossref]

[33.] Sehitoglu MH, Karaboga I, Kiraz A, Kiraz HA. The hepatoprotective effect of Aloe vera on ischemia-reperfusion injury in rats. North Clin Istanb 2019; 6: 203-9. [Crossref]

[34.] Cui X Ye Q, Wang H, Li Y, Yao W, Qian H. Hepatoprotective potential of Aloe vera polysaccharides against chronic alcohol-induced hepatotoxicity in mice. J Sci Food Agric 2014; 94: 1764-71. [Crossref]

[35.] Quan Y, Cong L, He J, Zhou Y, Liu M, Cao Z, et al. Aloe ernodin induces hepatotoxicity by activating NF-kB inflammatory pathway and P53 apoptosis pathway in zebrafish. Toxicol Lett 2019; 306: 66-79. [Crossref]

[36.] Liu DM, Yang D, Zhou CY Wu JS, Zhang CL, Wang R et al. Aloe-emodin induces hepatotoxicity by the inhibition of multidrug resistance protein 2. Phytomedicine 2020; 68: 153148. [Crossref]

[37.] Dong X, Fu J, Yin X, Qu C, Yang C, He H, et al. Induction of apoptosis in HepaRG cell line by aloe-emodin through generation of reactive oxygen species and the mitochondrial pathway. Cell Physiol Biochem 2017; 42: 685-96. [Crossref]

[38.] Ewing LE, Skinner CM, Quick CM, Kennon-McGill S, McGill MR, Walker LA, et al. Hepatotoxicity of a cannabidiol-rich cannabis extract in the mouse model. Molecules 2019; 24: 1694. [Crossref]

[39.] Corroon J, Phillips JA. A cross-sectional study of cannabidiol users. Cannabis Cannabinoid Res 2018; 3: 15261. [Crossref]

[40.] Huestis MA, Solimini R, Pichini S, Pacifici R, Carlier L Busardo FR Cannabidiol adverse effects and toxicity. Curr Neuropharmacol 2019; 17: 974-89. [Crossref]

[41.] Chow HC, So TH, Choi HCW, Lam KO. Literature Review of Traditional Chinese Medicine Herbs-lnduced Liver Injury From an Oncological Perspective With RUCAM. Integr Cancer Ther 2019; 18:1534735419869479. [Crossref]

[42.] Oketch-Rabah HA, Roe AL, Rider CV, Bonkovsky HL, Giancaspro Gl, Navarro V, et al. United States Pharmacopeia (USP) comprehensive review of the hepatotoxicity of green tea extracts. Toxicol Rep 2020; 7: 386-402. [Crossref]

[43.] Vanderperren B, Rizzo M, Angenot L, Haufroid V, Jadoul M, Hantson P. Acute liver failure with renal impairment related to the abuse of senna anthraquinone glycosides. Ann Pharmacother 2005; 39: 1353-7. [Crossref]

[44.] Xia X Lu Z, Lu M, Liu M, Liu L, Meng G, et al. Raw orange intake is associated with higher prevalence of non-alcoholic fatty liver disease in an adult population. Nutrition 2019; 60: 252-60. [Crossref]

[45.] Sathiyabama RG, Gandhi GR, Denadai M, Sridharan G, Jothi G, Sasikumar R et al. Evidence of insulin-dependent signalling mechanisms produced by Citrus sinensis (L.) Osbeck fruit peel in an insulin resistant diabetic animal model. Food Chem Toxicol 2018; 116: 86-99. [Crossref]

[46.] Abbasi H, Seidavi A, Liu W, Asadpour L. Investigation on the effect of different levels of dried sweet orange (Citrus sinensis) pulp on performance, carcass characteristics and physiological and biochemical parameters in broiler chicken. Saudi J Biol Sci 2015; 22: 139-46. [Crossref]

[47.] Pantano F, Mannocchi G, Marinelli E, Gentili S, Graziano S, Busardo FP, et al. Hepatotoxicity induced by greater celandine (Chelidonium majus L.): a review of the literature. Eur Rev Med Pharmacol Sci 2017; 21: 46-52.

[48.] Wu C, Wang X, Xu M, Liu Y, Di X. Intracellular Accumulation as an Indicator of Cytotoxicity to Screen Hepatotoxic Components of Chelidonium majus L. by LC-MS/MS. Molecules 2019; 24: 2410. [Crossref]

[49.] Sipahigil O, Dortunc B. Karragenin farmasotik teknolojideki kullanimi. FABAD J Pharm Sci 1999; 24: 89-98.

[50.] Bulut HS, Madanlar N. Side-effects of some natural pesticides on the predatory mite Phytoseiulus persimilis A.-H (Acarina: Phytoseiidae) in laboratory. Turkiye Entomoloji Dergisi, 2004; 28: 115-21.

[51.] Aslan H. Endustriyel Deger Tasiyan Sus Bitkilerinin Belirlenmesi ve Peyzajda Kullanimlari. Mesleki Bilimler Dergisi 2018; 7: 34-46.

[52.] Chrustek A, Holynska-lwan I, Dziembowska I, Bogusiewicz J, Wroblewski M, Cwynar A, et al. Current research on the safety of pyrethroids used as insecticides. Medicina 2018; 54: 61. [Crossref]

[53.] Ulbricht C, Conquer J, Costa D, Hollands W, Iannuzzi C, Isaac R, et al. An evidence-based systematic review of saffron (Crocus sativus) by the Natural Standard Research Collaboration. J Diet Suppl 2011; 8: 58-114. [Crossref]

[54.] Rezaee-Khorasany A, Razavi BM, Taghiabadi E, Yazdi AT Hosseinzadeh H. Effect of saffron (stigma of Crocus sativus L.) aqueous extract on ethanol toxicity in rats: A biochemical, histopathological and molecular study. J Ethnopharmacol 2019; 237: 286-99. [Crossref]

[55.] Amin A, Hamza AA, Bajbouj K, Ashraf SS, Daoud S. Saffron: a potential candidate for a novel anticancer drug against hepatocellular carcinoma. Hepatology 2011; 54: 857-67. [Crossref]

[56.] Ogunmoyole T Adeyeye Rl, Olatilu BQ Akande OA, Agunbiade O). Multiple organ toxicity of Datura stramonium seed extracts. Toxicol Rep 2019; 6: 983-9. [Crossref]

[57.] Ertekin V, Selimoglu MA, Altinkaynak S. A combination of unusual presentations of Datura stramonium intoxication in a child: Rhabdomyolysis and fulminant hepatitius.) Emerg Med 2005; 28: 227-8. [Crossref]

[58.] Akman SA, Cakir M, Baran M, Arikan C, Yuksekkkaya HA, Tumgor G, et al. Liver transplantation for acute liver failure due to toxic agent ingestion in children. Pediatr Transplant 2009; 13:1034-40. [Crossref]

[59.] Ekici M, Satilmis A, Ay YD, Dulger B, Mal Yer H. The study of the effects of Ecballium elaterium (I.) in sinusites. Ekoloji 1998; 27: 24-5.

[60.] El Naggar EMB, Chalupova M, Prazanova G, Parak T, Svajdlenka E, Zemlicka M, et al. Hepatoprotective and proapoptotic effect of Ecballium elaterium on CCl4-induced hepatotoxicity in rats. Asian Pac) Trop Med 2015; 8: 526-31. [Crossref]

[61.] Bizid S, Sabbah M, Msakni I, Slimene BB, Mohamed G, Bouali R, et al. Cholestatic hepatitis due to Ecballium elaterium ingestion. Clin Res Hepatol Gastroenterol 2015; 39: e61-3. [Crossref]

[62.] Zhang L, Wang T, Zhao BS, Zhang JX, Yang S, Fan CL, et al. Effect of 2 "-O-Rhamnosyl Icariside II, Baohuoside I and Baohuoside II in Herba Epimedii on Cytotoxicity Indices in HL-7702 and HepG2 Cells. Molecules 2019; 24: 1263. [Crossref]

[63.] Ortac M. Erektil disfonksiyon tedavisinde fitoterapi. Androloji Bulteni 2016; 18: 20-3.

[64.] Muslu L, Oncel S. Tip 2 Herbal Therapies Used in Type 2 Diabetes Mellitus: A Systematic Review. J Educ Res Nurs 2019; 16: 252-62. [Crossref]

[65.] Waidyanatha S, Mutlu E, Gibbs S, Stiffler B, Andre J, Burback B, et al. Systemic exposure to Ginkgo biloba extract in male F344/NCH rats: Relevance to humans. Food Chem Toxicol 2019; 131: 110586. [Crossref]

[66.] Yang L, Wang CZ, Ye JZ, Li HT. Hepatoprotective effects of polyprenols from Ginkgo biloba L. leaves on CCl4-induced hepatotoxicity in rats. Fitoterapia 2011; 82: 83440. [Crossref]

[67.] Parimoo HA, Sharma R, Patil RD, Sharma OR Kumar P Kumar N. Hepatoprotective effect of Ginkgo biloba leaf extract on lantadenes-induced hepatotoxicity in guinea pigs. Toxicon 2014; 81:1-12. [Crossref]

[68.] Mei N, Guo X, Ren Z, Kobayashi D, Wada K, Guo L. Review of Ginkgo biloba-induced toxicity, from experimental studies to human case reports. J Environ Sci Health C Environ Carcinog Ecotoxicol Rev 2017; 35: 1-28. [Crossref]

[69.] Jiang L, Si ZH, Li MH, Zhao H, Fu YH, Xing YX, et al. 1H NMR-based metabolomics study of liver damage induced by ginkgolic acid (15:1) in mice.) Pharm Biomed Anal 2017; 136: 44-54. [Crossref]

[70.] Qing-Qing Y, Li L, Xu MC, Hu HH, Zhou H, Yu LS, et al., The metabolism and hepatotoxicity of ginkgolic acid (17: 1) in vitro. Chin J Nat Med 2018; 16: 829-37. [Crossref]

[71.] Hoban CL, Byard RW, Musgrave IF. Analysis of spontaneous adverse drug reactions to echinacea, valerian, black cohosh and ginkgo in Australia from 2000 to 2015. J Integr Med 2019; 17: 338-43. [Crossref]

[72.] Sheoran S, Panda BP Admane PS, Panda AK, Wajid S. Ultrasound-assisted Extraction of Gymnemic Acids from Gymnema sylvestre Leaves and its Effect on Insulin-producing RINm-5 F [beta] Cell Lines. Phytochem Anal 2015; 26: 97-104. [Crossref]

[73.] Renga B, Festa C, De Marino S, Di Micco S, D'Auria MV, Bifulco G, et al. Molecular decodification of gymnemic acids from Gymnema sylvestre. Discovery of a new class of liver X receptor antagonists. Steroids 2015; 96: 121-31. [Crossref]

[74.] Shiyovich A, Nesher L, Sztarkier I. Toxic hepatitis induced by Gymnema sylvestre, a natural remedy for type 2 diabetes mellitus. Am J Med Sci 2010; 340: 514-7. [Crossref]

[75.] Vaghela M, Iyer K, Pandita N. In vitro Inhibitory Effect of Gymnema sylvestre Extracts and Total Gymnemic Acids Fraction on Select Cytochrome P450 Activities in Rat Liver Microsomes. Eur J Drug Metab Pharmacokinet 2018; 43: 227-37. [Crossref]

[76.] Rammohan B, Samit K, Chinmoy D, Arup S, Amit K, Ratul S, et al. Human cytochrome P450 enzyme modulation by Gymnema sylvestre: a predictive safety evaluation by LC-MS/MS. Pharmacogn Mag 2016; 12(Suppl 4): S389-94. [Crossref]

[77.] Piccolo p Gentile S, Alegiani E Angelico M. Severe drug induced acute hepatitis associated with use of St John's wort (Hypericum perforatum) during treatment with pegylated interferon [alpha]. BMJ Case Rep 2009; 2009: bcr0820080761. [Crossref]

[78.] Kalsi SS, Wood DM, Waring WS, Dargan PI. Does cytochrome P450 liver isoenzyme induction increase the risk of liver toxicity after paracetamol overdose? Open Access Emerg Med 2011; 3: 69-76. [Crossref]

[79.] Douros A, Bronder E, Andersohn E Klimpel A, Kreutz R, Garbe E, et al. Herb-induced liver injury in the Berlin case-control surveillance study. Int J Mol Sci 2016; 17: 114. [Crossref]

[80.] Agollo MC, Miszputen SJ, Diament J. Hypericum perforatum-induced hepatotoxicity with possible association with copaiba (Copaifera langsdorffii Desf): case report. Einstein 2014; 12: 355-7. [Crossref]

[81.] Rodriguez EA, Yokoda RT Payton DE, Pai R, Byrne TJ. Acute Hepatitis Secondary to the Use of Ilex paraguariensis (Mate Tea): A Case Report and Review of Literature. Case Reports Hepatol 2019; 2019: 8459205. [Crossref]

[82.] Sagor AT, Chowdhury MRH, Tabassum N, Hossain H, Rahman MM, Alam MA. Supplementation of fresh ucche (Momordica charantia L. var. muricata Willd) prevented oxidative stress, fibrosis and hepatic damage in CCI 4 treated rats. BMC Complement Altern Med 2015; 15: 115. [Crossref]

[83.] Offer U, Naidu ECS, Ogedengbe OO, Aniekan PI, Azu OO. Momordica charantia mitigates hepatic injury following adjuvant treatment with antiretroviral drugs in diabetic animal models. Toxicol Res 2020; 36: 37-44. [Crossref]

[84.] Feng Z, Zhou C, Dong S, Liu Z, Liu T, Zhou L, et al. Catalpol and panax notoginseng saponins synergistically alleviate triptolide-induced hepatotoxicity through Nrf2/ARE pathway. Toxicol In Vitro 2019; 56:141-9. [Crossref]

[85.] Alrashed AA, El-Kordy EA. Possible protective role of panax ginseng on cisplatin-induced hepatotoxicity in adult male albino rats (Biochemical and Histological Study). J Microsc Ultrastruct 2019; 7: 84-90. [Crossref]

[86.] Kumar O, Sugendran K, Vijayaraghavan R. Oxidative stress associated hepatic and renal toxicity induced by ricin in mice. Toxicon 2003; 41: 333-8. [Crossref]

[87.] Palatnick W, Tenenbein M. Hepatotoxicity from castor bean ingestion in a child. Journal of Toxicology: Clin Toxicol 2000; 38: 67-9. [Crossref]

[88.] Dickmann LJ, VandenBrink BM, Lin YS. In vitro hepatotoxicity and cytochrome P450 induction and inhibition characteristics of carnosic acid, a dietary supplement with antiadipogenic properties. Drug Metab Dispos 2012; 40: 1263-7. [Crossref]

[89.] Hegazy A, Abdel-Azeem AS, Zeidan HM, Ibrahim KS, El Sayed E. Hypolipidemic and hepatoprotective activities of rosemary and thyme in gentamicin-treated rats. Hum Exp Toxicol 2018; 37: 420-30. [Crossref]

[90.] Essawy AE, Abdel-Wahab WM, Sadek IA, Kharmis OM. Dual protective effect of ginger and rosemary extracts against CCI 4-induced hepatotoxicity in rats. Environ Sci Pollut Res Int 2018; 25: 19510-7. [Crossref]

[91.] Chen GW, Chen TY, Yang PM. Differential effect of herbal tea extracts on free fatty acids-, ethanol-and acetaminophen-induced hepatotoxicity in FL83B hepatocytes. Drug Chem Toxicol 2019: 1-6. [Crossref]

[92.] AlMotwaa SM, Alkhatib MH, Alkreathy HM. Hepatotoxic and hematotoxic effects of sage oil-loaded ifosfamide nanoemulsion in Ehrlich ascites carcinoma-bearing mice. Tropic J Pharmac Res 2019; 18: 1205-11.

[93.] Lima CE Fernandes-Ferreira M, Pereira-Wilson C. Drinking of Salvia officinalis tea increases CCl4-induced hepatotoxicity in mice. Food Chem Toxicol 2007; 45: 45664. [Crossref]

[94.] Baali N, Belloum Z, Baali S, Chabi B, Pessemesse L, Fouret G, et al. Protective activity of total polyphenols from Genista quadriflora Munby and Teucrium polium geyrii Maire in acetaminophen-induced hepatotoxicity in rats. Nutrients 2016; 8: 193. [Crossref]

[95.] Dag MS, Aydinli M, Ozturk ZA, Turkbeyler IH, Koruk I, Savas MC, et al., Drug-and herb-induced liver injury: a case series from a single center. Turk J Gastroenterol 2014; 25: 41-5. [Crossref]

[96.] Feki A, Jaballi I, Cherif B, Ktari N, Naifar M, Ayadi FM, et al. Therapeutic potential of polysaccharide extracted from fenugreek seeds against thiamethoxam-induced hepatotoxicity and genotoxicity in Wistar adult rats. Toxicol Mech Methods 2019; 29: 355-67. [Crossref]

[97.] Abdel-Daim MM, Abd Eldaim MA, Hassan AG. Trigonella foenum-graecum ameliorates acrylamide-induced toxicity in rats: Roles of oxidative stress, proinflammatory cytokines, and DNA damage. Biochem Cell Biol 2015; 93: 192-8. [Crossref]

[98.] Anagnostis P Patsiaoura K, Giouleme O, Katsinelos P Mpoumponaris A, et al. Valeriana hepatotoxicity. Sleep Med 2009; 10: 935. [Crossref]

[99.] Posadzki P Watson LK, Ernst E. Adverse effects of herbal medicines: an overview of systematic reviews. Clin Med 2013; 13: 7-12. [Crossref]

[100.] Robles-D1az M, Ortega-Alonso A, Medina-Caliz I, Andrade RJ. Hepatotoxicity by dietary supplements: a tabular listing and clinical characteristics. Int J Mol Sci 2016; 17: 537. [Crossref]

[101.] Cavus B, Alagoz M, Aksoz Z, Cengiz H. Hepatotoxicity due to the Consumption of a Plant Growing In Eastern Anatolia: A Case Report. Clin Med Case Rep 2018; 2:1-2.

[102.] Gonullu H, Karadas S, Dulger AC, Ebinc S. Hepatotoxicity associated with the ingestion of Papaver Rhoease. J Pak Med Assoc 2014; 64:1189-90.

Perihan Gurbuz [ID]

Inonu University, Vocational School of Health Services, Malatya, Turkey

Received/Gelis Tarihi: 02.06.2020 Accepted/Kabul Tarihi: 10.08.2020

Available Online Date: 04.09.2020

Address for Correspondence/Yazisma Adresi: Perihan Gurbuz, Inonu University, Vocational School of Health Services, Malatya, Turkey

E-mail/E-posta: perihan.gurbuz@inonu.edu.tr; pergur@hotmail.com

DOI: 10.5152/cjm.2020.20021
COPYRIGHT 2020 AVES
No portion of this article can be reproduced without the express written permission from the copyright holder.
Copyright 2020 Gale, Cengage Learning. All rights reserved.

Article Details
Printer friendly Cite/link Email Feedback
Author:Gurbuz, Perihan
Publication:Cerrahpasa Medical Journal
Article Type:Report
Date:Dec 1, 2020
Words:7271
Previous Article:Double Left Renal Vein Encircling the Aorta (Renal Collar) /Aortu Cevreleyen Cift Sol Renal Ven Olgusu.
Next Article:Microsurgical Feasibility, Boundaries, and Anatomical Landmarks in Anterior Temporal Lobectomy: A Novel Cadaveric Study/Anterior Temporal...
Topics:

Terms of use | Privacy policy | Copyright © 2022 Farlex, Inc. | Feedback | For webmasters |