- Open Access
Protective effects of methanolic extract of Andrographis paniculata (Burm.f.) Nees leaves against arsenic-induced damage in rats
Bulletin of the National Research Centre volume 46, Article number: 141 (2022)
Medicinal plants are natural sources of antioxidants effective in the treatment of oxidative stress-mediated diseases. This study aims to evaluate the hepato-renal protective efficacy of Andrographis paniculata leaves methanolic extract in arsenic-induced oxidative stress. Animals were divided into four groups of six animals per group. The rats in groups 1 and 2 received normal saline, while rats in groups 3 and 4 received 200 mg/kg body weight of A. paniculata or ascorbic acid per day, respectively, for 7 days orally. The rats in groups 2, 3, and 4 received a single dose of arsenic at 10 mg/kg body weight intraperitoneally on day 7, and 24 h later, rats in all the groups were killed and the blood, liver, and kidney samples were collected for biochemical/histological studies.
Administration of arsenic to rats induced a significant increase in the levels of alanine aminotransferase (ALT), aspartate aminotransferase (AST), cholesterol, urea, creatinine, and triglycerides in the plasma, while it decreased superoxide dismutase (SOD), glutathione (GSH) and catalase (CAT) activities in the liver and kidney. It also significantly reduced the levels of white blood cells (WBC), red blood cells (RBC), platelet (PLT), and lymphocytes (LYM) in the blood. However, the levels of AST, ALT, cholesterol, urea, creatinine, and triglycerides in the plasma of groups of rats that received A. paniculata extract before administration of arsenic were decreased, while their SOD, GSH, and CAT levels were elevated in the liver and kidney. The values of their WBC, RBC, PLT, and LYM were also significantly increased when compared to the arsenic group rats. Histological observations showed varying degrees of liver damage in the arsenic group rats, while the histoarchitecture of the liver of rats that received A. paniculata extract were significantly improved.
This study demonstrated that A. paniculata extract ameliorates arsenic-induced hepato-renal toxicity and could be exploited in the management of toxicity effects associated with the arsenic.
Arsenic is a metalloid and environmental toxicant characterized by a high atomic weight, with a large proportion relatively absorbed by the gastrointestinal tract and diffused via the blood tissue primarily to the hepatic, renal, bladder, and muscular system (Stummann et al. 2008; Mazumderm 2005). Chronic ingestion of arsenic leads to the upregulation of the pro-oxidant system, and downregulation of the natural antioxidant system, thus resulting in oxidative stress as well as damage to biomolecules (DNA & protein damage), chromosomal abnormalities and apoptosis (Afsane et al. 2020). The damage to tissues by arsenic has been reported to lead to cancer and several epigenetic modifications (Afsane et al. 2020; Palma-Lara et al. 2020). Although arsenic remains essential in the treatment of acute myeloblastic leukaemia with several other agricultural and industrial relevance (Palma-Lara et al. 2020), it remains classified as a carcinogen toxicant. Minute exposure to arsenic, mostly via soil, air, contaminated food and drinking water greater than the recommended level of 10 µg/L could prove to be critical to human health (Owoade et al. 2019). Mechanisms by which arsenic exerts its toxicity include: the downregulation of mitogen-activated protein kinase MAPK family (includes essential members such as extracellular signal-regulated kinases (ERKs), c-Jun amino-terminal kinase 3(JNK) and p38), upregulation of activator protein-1 (AP-1), repression of essential PI3K/Akt cascades, and deactivation of constitutive nuclear-factor-kappa B (NF-kB) (Afsane et al. 2020; Ghosh et al. 2009). A recent in vivo study revealed that intraperitoneal administration of arsenic, induced cardiorenal dysfunction in male Wistar rats, as well as significantly increased heartbeat rate (Ademola et al. 2018). Similarly, arsenic was observed to increase protein carbonyl content (PCO) in myocardial tissues (Das et al. 2010; Manna et al. 2008).
The use of medicinal plants in management of the chronic and acute diseases has been on for ages recording notable success. Plants contain several phytoconstituent and phytochemicals available at considerable low cost, high efficacy and negligible side effects (Bhattacharya and Haldar 2013). A. paniculata is a traditional herbaceous plant of the family Acanthaceae. It is used in the management of various ailments and is widely cultivated across Europe and Asia (Kumar et al. 2020; Jiashu et al. 2019). Several bioactive compounds isolated from A. paniculata include andrographolide, 14-deoxy-11,12-didehydroandrographolide and 14-deoxy andrographolide (Rammohan et al. 2008), while 19 different bioactive compounds including andrographolide, deoxygrapholide quercetin, kaempferol, and apigenin were identified in A. paniculata leaves extract using Gas chromatography (GC) (Owoade et al. 2021). Various toxicity studies conducted on A. paniculata leaves extract revealed that the plant is safe for consumption with LD50 greater than 5000 mg/kg body weight in mice and rats (Burgos et al. 1997; Allan et al. 2009; Chandrasekaran et al. 2009; Worasuttayangkurn et al. 2019). Copious studies have explored the anticancer, anti-inflammatory, hypotensive property, antiangiogenic, antihyperglycemic and antimalarial properties of A. paniculata extract (Kumar et al. 2004; Sheeja et al. 2007). More so, research has highlighted the role of andrographolide (major bioactive compound of A. paniculata) as well as its antiviral potency; with notable ones being i) abatement of acute brain injury in Wistar rats (Tao et al. 2018), ii) amelioration of permanent middle cerebral artery occlusion (pMCAO) (Yen et al. 2016), reduced neurological deficits in mice (Yen et al. 2013) while positive results were obtained in studies aimed at determined its antiviral potency (Flores et al. 2014; Daneman and Prat 2015). Our study thus aims to research the antioxidant and protective efficacy of A. paniculata methanolic extract, in the quest to strengthen scientific knowledge for its possible use as an agent in the synthesis of novel drugs.
Sodium arsenate (NaAsO2), trichloroacetic acid (TCA), folin–ciocalteau reagent, gallic acid, thiobarbituric acid (TBA), nicotinamide adenine dinucleotide reduced (NADH) were obtained from Sigma–Aldrich Chemical Co. Ltd. (England). while nitrobluetetrazolium (NBT) was the product of Fluka (Buchs, Switzerland). All other chemicals used were of analytical grade.
Plant materials and extract preparation
The leaves of A. paniculata were obtained from a local farm at Ibadan, Oyo State. The plant identification and authentication was carried out at the Department of Pure and Applied Biology, Ladoke Akintola University of Technology, Ogbomoso, by Prof A.J. Ogunkunle and a specimen was deposited in the herbarium with voucher number LH0738. The leaves were air-dried for two weeks at room temperature and pounded into powder. One hundred grams of the powdered A. paniculata leaves was soaked in 500 ml of methanol and shaken for 72 h; afterward, it was filtered and the supernatant was concentrated using a rotatory evaporator.
Twenty-four male Wistar rats with an average weight of 200 g were obtained from the experimental animal unit of the faculty of agriculture, Ladoke Akintola University of Technology, Ogbomosho, Nigeria. All rats were kept in cages in a room maintained at 26–29 °C with a 12-h light–dark cycle for 3-weeks to acclimatize and were allowed free access to food and water ad libitum. The faculty of basic medical science, Ladoke Akintola University of Technology, Ogbomoso, research ethics committee gave ethical approval for the study (FBMS2019/012). All the ethical protocols laid by the committee in line with ARRIVE guidelines, and the national institutes of health guide for the care and use of laboratory animals (NIH Publications No. 8023, revised 1978) were followed.
Three weeks after acclimatization the animals were divided into four groups of six animals per group. Group 1 rats received normal saline only and served as control. Group 2 rats received a single dose of arsenic dissolved in distilled water at 10 mg/kg body weight intraperitoneally on the 7th day (Oyagbemi et al. 2018). Group 3 and 4 rats received 200 mg/kg body weight per day of A. paniculata (Borgohain and Kakoti 2019) or ascorbic acid both dissolved in saline solution orally for 7 days, respectively, and on the 7th day, a single dose of arsenic at 10 mg/kg body weight was administered intraperitoneally. The rats were killed twenty-four hours after administration of arsenic by cardiac puncture under light ether anaesthesia. Blood, liver, and kidney samples were removed from the animals and stored for biochemical analysis.
Determination of biochemical parameters in plasma
The concentrations of aspartate aminotransferase (AST), alanine aminotransferase (ALT), total protein, urea, creatinine, cholesterol and total triglycerides were determined in the plasma using enzymatic kits (CYPRESS® Diagnostics, Langdorp, Belgium) according to the manufacturer’s instructions.
Preparation of liver and kidney homogenates
The liver and kidney samples are homogenized in phosphate buffer saline (PBS) to give a 10% (w/v) liver and kidney homogenate. The supernatant obtained after the homogenates were centrifuged at 12,000 rpm for 15 min was used for biochemical assay.
Determination of antioxidant enzyme activities and MDA levels
The concentration of reduced glutathione (GSH), superoxide dismutase (SOD), thiobarbituric acid-reactive product malondialdehyde (MDA) and catalase (CAT) in the liver and kidney homogenates was measured, as described by Jollow et al. (1974), Misra and Fridovish (1972), Buege and Aust (1978) and Sinha (1971), respectively. All enzyme activities were expressed as per mg of protein.
Fresh blood collected in EDTA bottles was analysed to determine haematological parameters using an automatic haematological assay analyser (ERMA PCE 210, ERMA, Japan).
The liver tissue was harvested from the killed rats and immediately fixed in 10% formal saline and used for histomorphological studies.
The results of this study were expressed as mean ± SEM. One-way analysis of variance (ANOVA) followed by Turkey’s test was used for statistical analysis, and p-value < 0.05 was considered statistically significant.
Effect of A. paniculata on ALT and AST activities
Administration of arsenic significantly (p < 0.05) increased enzymatic activity of ALT and AST by 3.4 fold, and 3.1 fold, respectively, when compared with the normal levels. However, administration of 200 mg/kg body weight of A. paniculata extract or ascorbic acid before arsenic induction significantly reduced plasma ALT activity by 48.92 and 60.87%, respectively, and AST activity by 60.44 and 54.03%, respectively, when compared with rats that received arsenic only (Fig. 1).
Effect of A. paniculata on plasma biochemical parameters
Administration of arsenic significantly increased the plasma urea concentration by 2.5 fold, plasma creatinine by 5.6 fold, cholesterol by 4.4 fold and triglycerides by 3.5 fold, while it reduced total protein content by 24.97% when compared with normal rats. Administration of normal rats with the A. paniculata or ascorbic acid before arsenic induction significantly reduced urea, creatinine, cholesterol and triglycerides concentration, while it increased the total protein content when compared with rats that received arsenic only (Table 1).
Effect of A. paniculata on hepatic and renal GSH levels
Administration of arsenic significantly decreased glutathione levels in both liver and kidney when compared to the control rats. However, rats that received 200 mg/kg A. paniculata or ascorbic acid before arsenic induction have their glutathione levels significantly increased (p < 0.05) in the liver by 65.77 and 131.67%, respectively, and in the kidney by 98.99 and 112.44%, respectively, when compared with rats in the arsenic group only (Fig. 2).
Effect of A. paniculata on the hepatic and renal SOD activity
Administration of arsenic caused a significant decreased in SOD activities in both liver and kidney homogenate by 81.04 and 76.98% when compared to the control rats. However, administration of 200 mg/kg A. paniculata or ascorbic acid to rats before arsenic induction significantly increased (p < 0.05) SOD activities in liver and kidney when compared with rats in the arsenic group only (Fig. 3).
Effect of A. paniculata on the hepatic and renal malonaldehyde levels
Administration of arsenic significantly raised MDA levels in the liver and kidney when compared with control rats. However, rats that received 200 mg/kg A. paniculata or ascorbic acid before arsenic administration have a significant (p < 0.05) reduction in the liver MDA levels by 44.25 and 60.90%, respectively, and kidney MDA levels by 54.35 and 63.19% when compared with rats in the arsenic group only (Fig. 4).
Effect of A. paniculata on the hepatic and renal catalase activity
Administration of arsenic caused a significant reduction in CAT activities in both liver and kidney homogenate by 363.89 and 140.76% when compared to the control rats. However, rats administered with 200 mg/kg A. paniculata or ascorbic acid have the CAT activities significantly increased (p < 0.05) in the liver and kidney when compared with rats in the arsenic group only (Fig. 5).
Administration of arsenic did not significantly affect the levels of HCT, HGB, MCV, MCH, RDW-SD, RDW-SV, P-LCR, MPV, PDW, MCHC and PTC, while the values of WBC, RBC, PLT and LYM were significantly lowered when compared with control animals. However, the values of all lowered parameters were significantly increased (p < 0.05) in rats that received 200 mg/kg A. paniculata or ascorbic acid before arsenic administration when compared with rats in the arsenic group only (Table 2).
Histopathological studies of the liver in the control and prophylactic groups
The hepatic cells from the arsenic group relative to the control group and other groups that received A. paniculata or ascorbic acid were characterized by severe infiltration of cytoplasm (blue arrow), necrosis (green arrow), and congested sinusoids (slender arrow) [Fig. 6(2)]. The hepatic cells from the A. paniculata extract [Fig. 6(3)] and ascorbic acid [Fig. 6(4)] prophylactic groups showed similar morphological organization to the control group [Fig. 6(1)].
Ingestion of arsenic at extremely high concentrations has led to the generation of free radicals, also capable of bypassing the blood–brain barrier, causing neurological deficits, cancer, chromosomal abnormalities and several epigenetic modifications (Afsane et al. 2020; Palma-Lara et al. 2020). The prevalence of exposure to arsenic brought about the need to discover and develop therapeutic agents from natural sources to combat the negative effects of oxidative stress associated with arsenic exposure. In this study, A. paniculata methanolic extract was found to be protective against the harmful effects associated with arsenic administration. Assessment of liver functioning is mostly evaluated using AST, ALT, and ALP assays. An increase in the activities of the hepatic enzymes in the plasma is an indication of liver dysfunction/ abnormalities (Rajesh and Latha 2004). There were elevated activities of AST and ALT in the plasma during arsenic-induced oxidative damage. However, rats that received A. paniculata methanolic extract or ascorbic acid before arsenic induction have a significant reduction in their AST and ALT activities when compared with rats administered with arsenic only. This confirms the hepatoprotective properties attributed to A. paniculata (Kapil et al. 1993).
Blood urea and creatinine levels are used to assess kidney function levels. The level of plasma creatinine is used to determine the glomerular filtration rate while urea is used to determine the nephrotoxic profile of xenobiotics (El-Wessemy 2008). There were significant increases (p < 0.05) in blood urea and creatinine levels in rats administered with arsenic only when compared to the control group. Administration of A. paniculata or ascorbic acid significantly lowered the levels of urea and creatinine in the blood when compared with rats that received arsenic only; this signifies that administration of A. paniculata or ascorbic acid protects the renal cells to combat the negative impact of arsenic.
Administration of arsenic increases plasma cholesterol and triglycerides levels significantly when compared with the control group which indicates disruption of lipid metabolism, in agreement with the previous study (Busher 1990). The cholesterol and triglycerides levels were reduced in the blood of rats that received A. paniculata or ascorbic acid before arsenic induction when compared with the arsenic group only. How A. paniculata extract was able to reduce the levels of cholesterol is not clear, but it may not be unconnected with its ability to modulate lipoprotein lipase activity or cholesterol metabolism in the liver (Ichikawa et al. 2005). There is a possibility that A. paniculata extracts chemical constituents, inactivates the enzymatic pathways, or reduces cholesterol biosynthesis or both.
The liver synthesizes most serum protein (Rosalki and Mcintyre 1999). Decreased serum total protein content may be a useful index of severity of hepatocellular damage (Folorunsho et al. 2019). In this study, administration of arsenic reduced total protein level when compared with control rats. However, rats that received A. paniculata or ascorbic acid have their total protein significantly increased (p < 0.05) to near normal, when compared with arsenic group rats which indicates repair of the hepatocellular damage caused by arsenic administration.
Arsenic administration induced depletion in the levels of hepatic and renal glutathione, superoxide dismutase (SOD) and catalase (CAT). The decrease in the activity of SOD, GSH and CAT levels during arsenic-induced oxidative stress may be due to excessive production of reactive oxygen species (Tan et al. 2019; Johnson and Lapadat 2002). The levels of liver and kidney GSH, SOD and Catalase, were preserved in rats that received A. paniculata or ascorbic acid. The maintenance of these enzymes suggests enhancement in the functional capability of the liver and kidney by the extract. Thus, administration of A. paniculata extract probably increases the biosynthesis of GSH, SOD and catalase or reduces the level of oxidative stress, or it may have both effects. Arsenic administration resulted in high levels of MDA contents in this study suggesting damage to the liver and kidney cells as observed in the previous study (Ademola et al. 2018). However, a significant reduction was obtained in MDA levels of rats that received A. paniculata or ascorbic acid before arsenic administration when compared to the arsenic group only, indicating that the extract and its constituents inhibit lipid damage in the liver and kidney.
The deleterious effects associated with arsenic administration can be evaluated through haematological parameters. The significant changes from normal haematological parameters levels would suggest the presence of disease conditions or toxicity (Oyedemi et al. 2010). Arsenic administration resulted in a significant reduction in RBC, WBC, LYM, and PLT in this study. The decrease in RBCs could be a result of blood loss due to gastrointestinal tract bleeding, poor iron absorption in the intestine and red blood cell haemolysis. White blood cells and LYM play a significant role in the fight against infections and foreign organisms’ invasion as well as produce antibodies in immune response (Soetan et al. 2013). Arsenic administration leads to a reduction in WBC and LYM in this study suggesting that arsenic suppresses the immune system. Excessive blood loss would result during injury if blood platelets level is low because platelets are involved in blood clotting. The reduction of platelet observed in this study suggests that arsenic administration induced thrombocytopenia. However, rats that received A. paniculata or ascorbic acid have their RBC, WBC, LYM, and PLT significantly increased (p < 0.05) to near normal, when compared with arsenic group rats which indicates the preservation of haematological parameters by A. paniculata or ascorbic acid administration.
The histopathological study of hepatic cells of arsenic group rats was characterized by severe steatosis, infiltration of cytoplasm and necrosis which are characteristics of the severe pathological lesion. However, the administration of A. paniculata or ascorbic acid before arsenic induction significantly improved the general histoarchitecture of the liver when compared with the arsenic group rats.
The present results indicate that A. paniculata extract through its actions protects the rats against arsenic-induced hepato-renal damage. This may be due to the mopping up of excessive free radicals generated by the arsenic exposure or upregulation of the antioxidant defence system by the extract. The bioactive compounds present in A. paniculata methanolic extract (majorly andrographolide, 14-deoxy-11,12-didehydroandrographolide and 14-deoxy andrographolide) have been mentioned in the previous studies to prevent the toxicity cascade usually triggered by arsenic (Afsane et al. 2020; Kapahi et al. 2000; Kumagai and Sumi 2007). Several pharmacological activities of A. paniculata previously studied include cardiovascular, anticancer, hepatoprotective activity, hypotensive property, antiangiogenic, antihyperglycemic and antimalarial potentials (Kumar et al. 2004; Sheeja et al. 2007). These activities could be attributed to the diverse group of phytochemicals such as diterpenoids, diterpene glycosides, lactones, flavonoids and flavonoids glycosides present in A. paniculata (nees) leaves (Pholphana et al. 2004; Owoade et al. 2021). Flavonoids and terpenoids, in particular, have been speculated to be responsible for the great antioxidant and anti-inflammatory potentials of A. paniculata in the previous study (Ghorbanpour and Varma 2017), and these constituents may account for good pharmacological properties of A. paniculata extract obtained in this study.
From this study, it can be inferred that bioactive compound from Andrographis paniculata (nees) could offer a novel therapeutic strategy in the management of hepato-renal diseases (usually associated with cirrhosis, hyper-calcinuria, syphilis and some cardiovascular dysfunction). Administration of A. paniculata might be potent in maintaining renal and liver morphology.
Availability of data and materials
The datasets used and/or analysed during the current study are available from the corresponding author on reasonable request.
White blood cell
Red blood cells
Red cells distribution width
Mean corpuscular haemoglobin
Mean corpuscular haemoglobin concentration
Mean platelet volume
Mean corpuscular volume
Platelet distribution width
Ademola AO, Temidayo OO, Ebunoluwa RA, John OA, Adeolu AA, Momoh AY (2018) Kolaviron attenuated arsenic acid induced-cardiorenal dysfunction via regulation of ROS, C-reactive proteins (CRP), cardiac troponin I (CTnI) and BCL2. J Tradit Complement Med 8:396–409
Afsane B, Thozhukat S, Seyed AM, Amirhossein S (2020) Counteracting arsenic toxicity: curcumin to the rescue? J Hazard Mater 400:123160
Allan JJ, Pore MP, Deepak M, Murali B, Mayachari AS, Agarwal A (2009) Reproductive and fertility effects of an extract of Andrographis paniculata in male wistar rats. Int J Toxicol 28:308–317
Bhattacharya S, Haldar PK (2013) Trichosanthes dioica root alleviates arsenic induced myocardial toxicity in rats. J Environ Pathol Toxicol Oncol 32(3):251–261
Borgohain P, Kakoti BB (2019) Study of acute toxicity and anti-inflammatory activity of Andrographis paniculata Nees (Acanthaceae). Int J Sci Environ Technol 8(3):580–584
Buege JA, Aust SD (1978) Microsomal lipid peroxidation. Methods Enzymol 52:302–310
Burgos RA, Caballeroa EE, Sáncheza NS, Schroedera RA, Wikmanb GK, Hanckea JL (1997) Testicular toxicity assesment of Andrographis paniculata dried extract in rats. J Ethnopharmacol 58:219–224
Busher JT (1990) Serum albumin and globulin. In: Walker HK, Hall WD, Hurst JW (eds) Clinical methods: the history, physical, and laboratory examinations, vol 101, 3rd edn. Butterworths, Boston
Chandrasekaran CV, Thiyagarajan P, Sundarajan K, Goudar KS, Deepak M, Murali B (2009) Evaluation of the genotoxic potential and acute oral toxicity of standardized extract of Andrographis paniculata (KalmCold™). Food Chem Toxicol 47:1892–1902
Daneman R, Prat A (2015) The blood-brain barrier. Cold Spring Harb Perspect Biol 7(1):a020412
Das AK, Bag S, Sahu R et al (2010) Protective effect of Corchorus olitorius leaves on sodium arsenite-induced toxicity in experimental rats. Food Chem Toxicol 48(1):326–335
El-Wessemy AM (2008) Histopathological and ultra-structural studies on the side effects of the analgesic drug tramadol on the liver of albino mice. Egypt J Zool 50:423–442
Flores JJ, Zhang Y, Klebe DW, Lekic T, Fu W, Zhang JH (2014) Small molecule inhibitors in the administered of cerebral ischemia. Expert Opin Pharmacother 15:659–680
Folorunsho AA, Olorunnisola OS, Adetutu A, Owoade AO (2019) Prolong administration of methanolic whole fruit extract of Lagenaria breviflora (Benth.) roberty provoke oxidative stress and kidney dysfunction in male Wistar rats. J Bioanal Biomed 11:142–148
Ghorbanpour M, Varma A (2017) Medicinal plants and environmental challenges. Springer International Publishing, Cham
Ghosh J, Das J, Manna P, Sil PC (2009) Taurine prevents arsenic-induced cardiac oxidative stress and apoptotic damage: role of NF-kappa B, p38 and JNK MAPK pathway. Toxicol Appl Pharmacol 240(1):73–87
Ichikawa T, Liang J, Kitajima S, Koike T, Wang X, Sun H et al (2005) Macrophage-derived lipoprotein lipase increases aortic atherosclerosis in cholesterol-fed Tg rabbits. Atherosclerosis 179(1):87–95
Jiashu L, Yaoying M, Jingjing W, Huaxing H, Wang X, Chen Z, Jinliang C, Haiyan H, Chao H (2019) A review for the neuroprotective effects of andrographolide in the central nervous system. Biomed Pharmacother 117:109078
Johnson GL, Lapadat R (2002) Mitogen-activated protein kinase pathways mediated by ERK, JNK, and p38 protein kinases. Science 298:1911–1912
Jollow DJ, Michell JR, Zampaglione N, Gillete J (1974) Bromobenzene- induced liver necrosis. Protective role of glutathione an evidence for 3,4 bromobenzene oxide as the hepatotoxic metabolite. Pharmacology 11:151–169
Kapahi P, Takahashi T, Natoli G, Adams SR, Chen Y, Tsien RY, Karin M (2000) Inhibition of NF-κB activation by arsenite through reaction with a critical cysteine in the activation loop of IκB kinase. J Biol Chem 275:36062–36066
Kapil A, Koul I, Banerjee S, Gupta B (1993) Antihepatotoxic effects of major diterpenoid constituents of Andrographis paniculata. Biochem Pharmacol 46:182–185
Kumagai Y, Sumi D (2007) Arsenic: signal transduction, transcription factor, and biotransformation involved in cellular response and toxicity. Annu Rev Pharmacol Toxicol 47:243–262
Kumar RA, Sridevi K, Vijaya KN, Nanduri S, Rajagopal S (2004) Anticancer and immunostimulatory compounds from Andrographis paniculata. J Ethnopharmacol 92:291–295
Kumar G, Singh D, Ahmed-Tali J, Dheer D, Shankar R (2020) Andrographolide: chemical modification and its effect on biological activities. Bioorg Chem 95:103511
Manna P, Sinha M, Sil PC (2008) Arsenic-induced oxidative myocardial injury: protective role of arjunolic acid. Arch Toxicol 82(3):137–149
Mazumder DG (2005) Effect of chronic intake of arsenic-contaminated water on liver. Toxicol Appl Pharmacol 206:169–175
Misra HP, Fridovich I (1972) The role of superoxide anion in the autooxidation of epinephrine and a simple assay for superoxide dismutase. J Biol Chem 247:3170–3175
Owoade AO, Adetutu A, Olorunnisola OS (2019) Free radicals as mediators of oxidative damage and disease. IOSR J Pharm Biol Sci 14(2):57–64
Owoade AO, Alausa AO, Adetutu A, Olorunnisola OS, Owoade AW (2021) Phytochemical characterization and antioxidant bioactivity of Andrographis paniculata (Nees). PAJOLS 5(2):246–256
Oyagbemi AA, Omobowale TO, Asenuga ER, Abiola JO, Adedapo AA, Yakubu MA (2018) Kolaviron attenuated arsenic acid induced-cardiorenal dysfunction viaregulation of ROS, C-reactive proteins (CRP), cardiac troponin I (CTnI) and BCL2. J Tradit Complement Med 8:396–409
Oyedemi SO, Bradly G, Afolayan AJ (2010) Toxicological effects of the aqueous stem bark extract of Strychnos henningsii Gilg in Wistar rats. J Nat Pharm 1:33–39
Palma-Lara I, Martínez-Castillo M, Quintana-Pérez JC, Arellano-Mendoza MG, Tamay-Cach F, Valenzuela-Limón OL, García-Montalvo EA, Hernández-Zavala A (2020) Arsenic exposure: a public health problem leading to several cancers. Regul Toxicol Pharmacol 110:104539
Pholphana N, Rangkadilok N, Thongnest S, Ruchirawat S, Ruchirawat M (2004) Determination and variation of three active diterpenoids in Andrographis paniculata (Burm. f.) Nees. Phytochem Anal 15:365–371
Rajesh MG, Latha MS (2004) Preliminary evaluation of the antihepatotoxic effect of Kamilari, a polyherbal formulation. J Ethnophar 91:99–104
Rammohan SM, Zaini A, Amirin S (2008) In vitro α-glucosidase and α-amylase enzyme inhibitory effects of Andrographis paniculata extract and andrographolide. Acta Biochim Pol 55(2):391–398
Rosalki SB, Mcintyre N (1999) Biochemical investigations in the management of liver disease. In: Oxford textbook of clinical hepatology, 2nd edn. New York, Oxford University Press, pp 503–521
Sheeja K, Guruvayoorappan C, Kuttan G (2007) Antiangiogenic activity of Andrographis paniculata extract and andrographolide. Int Immunopharmacol 7:211–221
Sinha KA (1971) Colorimetric assay of catalase. Anal Biochem 47:389–394
Soetan KO, Akinrinde AS, Ajibade TO (2013) Preliminary studies on the haematological parameters of cockerels fed raw and processed guinea corn (Sorghum bicolor). In: Proceedings of 38th Annual Conference of Nigerian Society for Animal Production, 49–52.
Stummann T, Hareng L, Bremer S (2008) Embryotoxicity hazard assessment of cadmium and arsenic compounds using embryonic stem cells. Toxicology 252:118–122
Tan Z, Kang T, Zhang X, Tong Y, Chen S (2019) Nerve growth factor prevents arsenic- induced toxicity in PC12 cells through the AKT/GSK-3β/NFAT pathway. J Cell Physiol 234:4726–4738
Tao L, Zhang L, Gao R, Jiang F, Cao J, Liu H (2018) Andrographolide alleviates acute brain injury in a rat model of traumatic brain injury: possible involvement of inflammatory signaling. Front Neurosci 12:657
Worasuttayangkurn L, Nakareangrit W, Kwangjai J, Sritangos P, Pholphana N, Watcharasit P, Rangkadilok N, Thiantanawat A, Satayavivad J (2019) Acute oral toxicity evaluation of Andrographis paniculata-standardized first true leaf ethanolic extract. Toxicol Rep 6:426–430
Yen TL, Hsu WH, Huang SK, Lu WJ, Chang CC, Lien LM, Hsiao G, Sheu JR, Lin KH (2013) A novel bioactivity of andrographolide from Andrographis paniculata on cerebral ischemia/reperfusion-induced brain injury through induction of cerebral endothelial cell apoptosis. Pharm Biol 51:1150–1157
Yen TL, Chen RJ, Jayakumar T, Lu WJ, Hsieh CY, Hsu MJ, Yang CH, Chang CC, Lin YK, Lin KH, Sheu JR (2016) Andrographolide stimulates p38 mitogen- activated protein kinase-nuclear factor erythroid-2-related factor 2-heme oxygenase 1 signaling in primary cerebral endothelial cells for definite protection against ischemic stroke in rats. Transl Res 170:57–72
We acknowledge the authors whose publications were used in the preparation of this manuscript.
No funding was obtained for this study.
Ethics approval and consent to participate
The faculty of basic medical science, Ladoke Akintola University of Technology, Ogbomoso, research ethics committee gave ethical approval number for the study (FBMS2019/012) in compliance with ARRIVE guidelines.
Consent for publication
All authors declare no conflict of interest.
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
About this article
Cite this article
Owoade, A.O., Alausa, A.O., Adetutu, A. et al. Protective effects of methanolic extract of Andrographis paniculata (Burm.f.) Nees leaves against arsenic-induced damage in rats. Bull Natl Res Cent 46, 141 (2022). https://doi.org/10.1186/s42269-022-00832-x
- Andrographis paniculata