A COMPREHENSIVE REVIEW OF PLANTS USED AS CONTRACEPTIVES
HTML Full TextA COMPREHENSIVE REVIEW OF PLANTS USED AS CONTRACEPTIVES
Dusmanta Kumar Pradhan*1, Manas Ranjan Mishra 1, Ashutosh Mishra 1, Ashok Kumar Panda 2, Rajani Kanta Behera 3, Shivesh Jha 4 and Sanjaya Choudhury 5
Gayatri College of Pharmacy 1, Sambalpur, Odisha, India
Veer Surendra Sai University of Technology (VSSUT) 2, Burla, Odisha, India
School of Chemistry, Sambalpur University 3, Burla, Odisha, India
Department of Pharmacy, BITS 4, Ranchi, Jharkhand, India
The Pharmaceutical College 5, Barpali, Bargarh, Odisha, India
ABSTRACT
Evaluation of herbs for anti-fertility effects has been in progress worldwide for several decades to identify effective and safe substances for control of population explosion. This population explosion will have negative impact on our economic policies and would simultaneously misbalance our socio-economic infrastructure. Family planning has been promoted through several methods of contraception, but due to serious adverse effects produced by synthetic steroidal contraceptives, attention has now been focused on indigenous plants for possible contraceptive effect. Although contraceptives containing estrogen and progesterone are effective and popular, the risks associated to the drugs have triggered the need to develop newer molecules from medicinal plants. Hence, there is a need for searching suitable product from indigenous medicinal plants that could be effectively used in the place of pills.
Keywords: |
Anti-fertility, Contraceptive, Indigenous, Progesterone, Estrogen
INTRODUCTION: Since ancient times, mankind has used plants to cure diseases and relieve physical sufferings. Because of better cultural acceptability, better compatibility with the human body, lesser side effects and effectiveness of many traditional medicines is now an accepted fact.
More than 35,000 plant species are being used in various human cultures around the world for medicinal purposes. Nearly 80% of the world populations rely on traditional medicines for primary health care, most of which involve the use of plant extracts 1, 2.
One of the critical problems of the developing countries like India is its geometrical increase in human population that. This increment imposes an extra burden on all aspects of development, especially employment, education, housing, health care, sanitation and environment. This population explosion will have negative impact on our economic policies and would simultaneously misbalance our socio-economic infrastructure, according to National Institute of Population studies.
Today we understand that our sheer numbers have increased so much that they are straining Earth’s capacity to supply food, energy and raw materials.
Thus the control of human fertility in the sense of its limitation is the most important and urgent of all bio-social and medical problems confronting mankind today 2.
Contraception is literally the prevention of conception, but generally is taken to mean the prevention of pregnancy 3. Family planning has been promoted through several methods of contraception, like contraceptive pills, Copper-T, Tubectomy, Condoms, Diaphragm and coitus interrupts. These methods are mostly female oriented. Contraceptive pills are usually female sex hormone like estrogen, progesterone or their derivatives single or together. The concept of sterilization by female sex hormone is very old and it was initiated in beginning of twentieth century. Novid was the first “pill” approved by FDA for use as contraceptive agent in the USA in 1959. But unfortunately these pills develop some unwanted effects like obesity, dysmenorrheal, vomiting, cardiovascular disorders and carcinoma of breast and uterus. So these pills are not safe for long term use.
Various measures have been taken to minimize the side effects of these pills but there is little success. Due to serious adverse effects produced by synthetic steroidal contraceptives, attention has now been focused on indigenous plants for possible contraceptive effect. Although contraceptives containing estrogen and progesterone are effective and popular, the risks associated to the drugs have triggered the need to develop newer molecules from medicinal plants.
From the advancement of reproductive biomedicine, several hormonal contraceptive pills have been developed but no one is free from different side effects For this purpose, the World Health Organization (WHO) has constituted a population control programme, which includes studies having traditional medical practices. At present global attempt has been taken to search out the effect of herbal product for contraceptive purposes 4.
The development of new fertility regulating drug from medicinal plants is an attractive proposition, because from times immemorial humans have relied on plants and their products as sources of drugs and therapeutic agents, although in recent times, synthetic drugs are used extensively in modern medicine. However many modern medicines are developed through the clues obtained from phytochemicals. More over the phytochemicals even today are important resources for medicine. The plant products are becoming more popular than the synthetic drugs. In recent times it is mainly attributed to their low toxicity and long standing experience of exposure of these drugs in ethnic medicine system like Ayurveda.
Hence, there is a need for searching suitable product from indigenous medicinal plants that could be effectively used in the place of pills. All combination oral contraceptives (COCs) contain both an estrogenic compound and a progestin. Over the years, the amounts and types of these components have changed in attempts to lower side effects and improve efficacy 5.
Herbal contraceptives offer alternatives for women who have problems with or lack access to modern contraceptives options particularly women living in the rural areas in developing nations with very high population like India, China, Africa (Nigeria) and Bangladesh. Studying the potency and toxicity of local plants that are reputed for birth control in the folkloric medicine of these countries may generate greater confidence in and wider acceptance of herbal contraceptives. However, the search for an orally active, safe and effective plant preparation or its compound is yet to be needed for fertility regulation due to incomplete inhibition of fertility or side effects.
Numerous herbs have been used historically to reduce fertility, and modern scientific research has confirmed anti-fertility effects in at least some of the herbs tested. Herbal contraception may never reach the level of contraceptive protection as the pill, but it offers alternatives for women who have difficulty with modern contraceptive options or who just want to try a different way. Very little is known about many of the herbs, or about long term side effect 2.
Hormonal control of Fertility: The most effective method of contraception, the birth control pill, is based on oral administration of steroids. Estrogens and progestins are used either combined or, as with the “minipill”, progestins are used alone.
In addition, various combinations of steroids can also be administered as long-acting injectable preparations or via intrauterine systems. The pills to be effective via the oral route, estradiol and progesterone cannot be used since they are metabolized in the gastrointestional tract and liver. As a consequence, synthetic estrogens such as mestranol or ethinyl estradiol are used in combination with various synthetic progestins, such as norethindrone, norethindrone acetate, norgestrel, ethinodiol diacetate or norethynodrel. The hormones are given in a cyclic fashion for 21 days, beginning on day 5 of the menstrual cycle, followed by 7 days of placebo treatment or no pills.
The elevated estrogen and progestin levels inhibit the midcycle LH surge and ovulation by exerting negative feedback effects on the hypothalamus. Irregular LH peaks are sometimes observed, while FSH levels are usually suppressed. Ovarian progesterone production is diminished, but estrogens continue to be secreted. The effects on the endometrium are variable and depend on the type and dosage of the contraceptive. Rapid progression from proliferation to early secretory changes can be observed within a few days from the start of daily intake, followed by regressive changes. Secretory activity is either minimal or absent. The pregnancy rate for combined pills is approximately 2%. 5.
Mechanism of action of Antifertility Plants: Plant drugs have been used since time immemorial for their effects upon sex hormones particularly for suppressing fertility, regularizing menstrual cycle, relieving dysmennoroea, treating enlarged prostate, menopausal symptoms, breast pain and during and after childhood 6.
Specific biological effects under the division of fertility regulating category are non- specific contraceptive or antifertility effects, abortifacient, uterine stimulant and uterine relaxants, labour induction and labour inhibition oxytocic and anti- oxytocic, oestrogenic and anti- oestrogenic, progestrogenic and anti- progesterogenic, ovulatory and anti- ovulatory, androgenic and anti- androgenic, spermicidal and anti- spermatogenic effects 7.
The site of action of antifertility agents in females consists of the hypothalamus, the anterior pituitary, the ovary, the oviduct, the uterus and the vagina. The Hypothalamus controls the action of the uterus via follicle stimulating hormone (FSH) and Luteinizing hormone (LH) releasing hormones. Antifertility agents may therefore exert their effort at this level either by disrupting hormonal function of the hypothalamus and/ or the pituitary, or by interrupting the neural pathway to the hypothalamus that control the liberation of gonadotrophinreleasing hormones. Early researchers in the area of female fertility regulation focused their attention to phytoestrogens following the recognition that excess ingestion of plants containing estrogenic compounds resulted in infertility in animals and humans 6.
The mammalian uterus which is the main site of antifertility effects comprises outer myometrial cells which are responsible for the contraction of the uterus, inner endometrial cells which are secretary and the cervix. The physiology of the uterus and its response to oxytocic drugs differs greatly in different species. Moreover the type of motility and the threshold for the response to oxytocic drugs differs with the phase of the oesterus cycle and the stage of pregnancy 6.
Phytoestrogens are any plant compounds structurally and/ or functionally similar to ovarian and placental estrogens and their active metabolites 8. They include a vast variety of structurally diverse compound. These include isoflavones found in soy, lignans found in grains, stilbenes found in the skin of grapes and fungal metabolites, for example, macrolides 9. Plants with estrogenic property can directly influence pituitary action by peripheral modulation of LH and FSH decreasing secretion of this hormones and block ovulation. The decrease in LH and FSH could explain ovulation and estrous cycle blockage by some plant extracts. All substances able to inhibit this release could provoke an ovulation disruption by decreasing the number of mature follicles 10.
The mammalian uterus which is the main site of antifertility effects comprises outer myometrial cells which are responsible for the contraction of the uterus, inner endometrial cells which are secretary and the cervix.
The physiology of the uterus and its response to oxytocic drugs differs greatly in different species. Moreover the type of motility and the threshold for the response to oxytocic drugs differs with the phase of the oesterus cycle and the stage of pregnancy 6.
Several active chemical constituents accountable for uterotonic effects are discovered in various plant species from time to time. For instance two triterpenic saponins called ardisiacrispin A and B are isolated and characterized from the crude extracts of Ardisia crispa root. This plant root is used by Thai people for washing out dirty blood in woman suffering from menstrual pain. The isolated compounds were responsible for uterocontracting properties in treated rats 11. An active indole alkaloid compound, Yuehchukene isolated from the plant Murraya pankalata is used in China to regulate fertility because it has potent anti-implantation effect 12.
Therefore, in the present study, an attempt has been made to document the anti-fertility activity of the selected medicinal plants.
Following is the list of plants available for anti-fertility activity with their parts used and somewhere mechanism of action to understand this activity.
TABLE 1: INDIGENOUS MEDICINAL PLANTS HAVING ANTIFERTILITY ACTIVITY
Sl. No. | Botanical Name | Family | Parts used | Action | References |
1 | Abroma angusta | Sterculiaceae | Roots | Antiimplantation & Abortification activity | 13, 14 |
2 | Abrus precatorius | Fabaceae | Seeds | Abortifacient activity | 17,15,2,16,14 |
3 | Acalypha indica | Euphorbiaceae | Whole plant | Antioestrogenic activity | 12, 2 |
4 | Achillea millefolium | Asteraceae | Flowers | Contraception Activity | 17 |
5 | Achyranthus aspera | Amranthaceae | Whole plant Stem bark,root | Antiimplantation & Abortification activity | 17,13,18 |
6 | Adhatoda vasica | Acanthaceae | Leaves | Antiimplantation & Abortification activity | 13,2,18 |
7 | Aegle marmelos | Rutaceae | Leaf | Contraception Activity | 17,2,16 |
8 | Aerva lanata | Amaranthaceae | aerial parts | Anti-implantation | 18 |
9 | Afromosia laxiflora | Fabaceae | Stem bark | Antigonadotropic activity, Block oestrous cycle | 3 |
10 | Ailanthus excelsa | Simaroubaceae | Leaf, stem,Bark | Anti-implantation | 17, 3 |
11 | Alangium salvifolium | Alangiaceae | Stem bark | Abortifacient, anti-implantation | 17,1,19,20, 18 |
12 | Albizzia lebbec | Mimosacaeae | Seeds,Roots,Pods | Antifertility | 1 |
13 | Allium cepa | Liliaceae | Bulb | Antiimplantation activity | 13 |
14 | Aloe vera | Liliaceae | Latex | Spermicidal | 19 |
15 | Amaranthus spinous | Amaranthaceae | Root | Inhibit fusion of sperm & ovum | 15 |
16 | Amaranthus viridis | Amaranthaceae | Root | Contraception Activity | 1 |
17 | Anacardium occidentale | Anacardiaceae | Nut shell | Spermicidal | 13 |
18 | Ananas comosus | Bromeliaceae | Unripe fruit, leaves | Abortifacient | 13, 18 |
19 | Andrographis paniculata | Acanthaceae | Dried leaves powder | Antifertility,Arrest oogenesis & depletes estrogen level | 3 |
20 | Arctium lappa | Asteraceae | Leaves and roots | Abortifacient | 1 |
21 | Ardicia solanacea | Myrsinacea | Plants excluding roots | Spermicidal activity | 13 |
22 | Aristolochia tagala | Aristolochiaceae | Whole plant | Anti-implantation | 13 |
23 | Artemisia fricana | Asteraceae | Leaf | Abortion | 1 |
24 | Artemisia vulgaris | Compositae | Whole plant | Spermatogenesis | 3,21 |
25 | Aspilia africana | Asteraceae | Leaves | Antiovulatory activity | 17 |
26 | Austropenckia populnea | Celastraceae | Pods | Antiimplantation & Abortification activity | 3 |
27 | Azadirachta indica | Maliaceae | Seed oil | Anti-androgenic Activity | 3,1,15,20,14 |
28 | Bacopa monnieri | Scrophulariaceae | Plant | Contraception Activity | 17 |
29 | Balanites roxburghii | Zygophyllaceae | Fruits | Contraception Activity | 13,17 |
30 | Ballota undulate | Labiatae | Leaves, flower | Antiimplantation activity | 17 |
31 | Barleria prionitis | Acanthaceae | Root | Antispermaogenic activity | 20,2 |
32 | Biophytum sanctivum | Oxalidaceae | Leaves | Anti-implantation | 4,19 |
33 | Bougainvillea | Nyctaginaceae | Leaves | Antifertility | 4 |
34 | Butea monosperma | Papilionaceae | Seed | Inhibit release of ovum from ovary | 1,22,15,14 |
35 | Calotropis procera | Ascrophluariaceae | Roots | Anti-implantation | 13 |
36 | Cananga odorata | Annonaceae | Root, bark | Contraception Activity | 17 |
37 | Cardiospermum helicacabum | Spindaceae | Whole plant | Anti-implantation | 4 |
38 | Carica papaya | Caricaceae | Latex of green fruit Seeds | Antiimplantation & Abortification activity | 17,13,15,22 |
39 | Carum carvi | Apiaceae | Rhizome | Antioestrogenic activity
|
17 |
40 | Cassia fistula | Caesalpiniaceae | Pods, seeds | Antiimplantation activity | 17,2 |
41 | Cicer arietinum. | Paplionaceae | Seeds | Oestrogenic activity | 17 |
42 | Cissampelos pareira | Menispermaceae | Leaves | Antioestrogenic activity | 2,16,23 |
43 | Clerodendrum serratum | Verbenaceae | Whole plant except root | Spermicida | 13 |
44 | Cnidoscolous aconitifolius | Euphorbiaceae | Leaves | Contraception Activity | 13 |
45 | Cola nitida | Sterculiaceae | Sterm bark | Antigonadotropic activity, Block oestrous cycle | 3 |
46 | Colebrookia oppositifolia | Lamiaceae | leaf | Contraception Activity, | 17 |
47 | Combretodendron macrocarpum | Barringtoniaceae | Stem bark | Antigonadotropic activity | 17 |
48 | Crataeva nurvala | Capparidaceae | Stem bark | Antioestrogenic activity | 3,2 |
49 | Crotalaria juncea | Papilionaceae | Seeds | Anti-implantation activity | 17,4 |
50 | Croton roxburghii
|
Euphorbiaceae | Bark | Antioestrogenic activity | 17 |
51 | Cumftiga racemosa | Apocyanaceae | Root | Spermatogenesis | 4,17,20 |
52 | Cuminum cyminum | Apiaceae | Seed | Contraception Activity | 17 |
53 | Curcuma aromatic | Zingiberaceae | Rhizome | Antioestrogenic activity | 13,15,16 |
54 | Curcuma longa | Zingiberaceae | Rhizome | Antiostrogenic activity | 17,19 |
55 | Cyclea burmanni | Menispermaceae | Roots Resorption | estrogen effect | 13 |
56 | Cyperus rotundus | Cyperaceae | Rhizomes | Oestrogenic activity | 19,24 |
57 | Daucus carota | Apiaceae | Seeds | Antiimplantation & Abortification activity | 15 |
58 | Dendrophthoe falcate | Loranthaceae | Aerial parts | Antioestrogenic activity | 3 |
59 | Derris brevipes variety coriacea | Papillionaceae | Root Powder | Abortifacient activity | 3,20,18,25 |
60 | Dioscorrea bulbifera | Dioscoreaceae | Tuber | Inhibit oogenesis | 4 |
61 | Dipsacus mitis | Spindaceae | Root | Increase progesterone secretion | 15,1 |
62 | Embelia ribes | Myrsinaceae | WholePlant, Fruit | anti-fertility activity | 1 |
63 | Eugenia jambolana | Myrtaceae | Flowers | Decrease sperm count | 3 |
64 | Ficus religiosa | Mosaceae | Seed | Inhibit the release of ovum from the ovary | 13 |
65 | Foeniculum vulgare | Apiaceae | Powder of fruits | contraceptive | 3,13,14 |
66 | Fterocarpus erinaceus | Fabaceae | Sterm bark | Antigonadotropic activity | 13 |
67 | Guaiacum officinale | Zygophyllaceae | Aerial parts | Abortifacient | 13 |
68 | Gossipium herbacium. | Malvaceae | Stem, Roots & Seeds | Antiimplantation & Abortification activity | 13 |
69 | Grewia asiatica | Tiliaceae | Seeds | Antiimplantation & Abortification activity | 13,3,15,2,25 |
70 | Glycyrrhiza glabra | Paplionaceae | Roots | Oestrogenic activity | 13,4 |
71 | Hydrocotyle javanica Thunb. | Apiaceae | Whole plant | Spermicidal | 20,26 |
72 | Hibiscus rosa-sinensis | Malvaceae | Flowers | Inhibit spermatogenesis | 3 |
73 | Hyptis suaveolens | Lamiaceae | Leaves | Anti-fertility | 3 |
74 | Jatropha curcus | Euphorbiaceae | Fruits | Abortifacient | 3 |
75 | Juniperus communis | Cupressaceae | Seed | Antiimplantation | 3 |
76 | Lawsonia intermis | Lythraceae | Flower | Inhibit spermatogenesis | 2 |
77 | Liadenbergia indica | Acanthaceae | Rhizome | Arrest oogenesis | 13 |
78 | Lobelia inflate | Lobeliaceae | stem | Decrease sperm count and sperm motility | 14 |
79 | Lepidagathis longifolia | Verbenaceae | Roots | Spermicidal | 17,20 |
80 | Michelia Champaca. | Magnoliaceae | Bark | Antiimplantation & Abortification activity | 13 |
81 | Mimosa pudica | Mimosaceae | Root | Contraception and abortion | 4,17,1 |
82 | Martynia annua | Pedaliaceae | Roots | Contraception Activity | 1,20 |
83 | Maesa indica | Myrsinaceae | Whole plant excluding roots | Spermicidal | 17,2 |
84 | Mentha arevensis | Lamiaceae | Leaves | Contraception Activity | 4 |
85 | Mentha longifolia | Lamiaceae | Leaves | Contraceptive | 2 |
86 | Melia azedarach | Meliaceae | Seed | Antiimplantation activity | 17 |
87 | Momordica cymbalaria | Cucurbitaceae | Root | Anti-implantation activity | 13,16 |
88 | Mondia whitei | Apocynaceae | Root | Antispermatogenic activity | 13 |
89 | Nelumbo nucifera | Nymphaeaceae | Seeds | Antioestrogenic activity | 13,19 |
90 | Ocimum gratissimum | Labiataceae | Leaves | Contraception Activity | 13 |
91 | Ougeinia dalbergioides Bth. | Fabaceae | Stem bark | Spermicidal | 13,2 |
92 | Ocimum sanctum | Labiatae | Leaves | Decrease sperm count and sperm motility, | 17,2 |
93 | Oxalis corniculata | Oxalidaceae | Whole plant | Oestrogenic activity | 3,2 |
94 | Piper longum | Piperaceae | Roots, Leaves, fruits | Anti-fertility | 17 |
95 | Piper nigrum | Piperaceae | Fruit powder | Contraception Activity | 3 |
96 | Piper betel | Pedaliaceae | Petiol | Antiostrogenic activity | 13 |
97 | Punica granatum | Punicaceae | Fruits | Anti-implantation | 1 |
98 | Pittosporum wightii | Pittosporaceae | Plants excluding root | Spermicidal | 17 |
99 | Plantago ovata | Plantaginaceae | Seed | Abortion | 17,2 |
100 | Polygonum hydropiper | Polygonaceae | Root, Powder | Antiostrogenic activity | 3,2 |
101 | Physalis alkekengi | Piperaceae | Plants | Anti-implantation | 3 |
102 | Phyllanthus amarus | Euphorbiaceae | Whole plant | Contraception Activity | 4,1,2 |
103 | Pterocarpus ennaceus | Fabaceae | Stem bark | Antigonadotropic activity, Block oestrous cycle | 13 |
104 | P lumbago zeylanica | Root | Abortifacient property | 3,17,20,2 | |
105 | Pergularia daemia | Asclepiadaceae | Twig | Anti-implantation, late abortifacient | 15 |
106 | Quassia amara | Simaroubaceae | bark, leaves | Contraception Activity | 3,1,14 |
107 | Randia dumetorum | Rubiaceae | fruit | Inhibit spermatogenesis | 17,20 |
108 | Ricinus communis | Euphorbiaceae | Seed oil | Spermatogenesis | 4 |
109 | Rivea hypocrateriformis | Convolvulaceae | Aerial parts | Antiovulatory activity | 17,2 |
110 | Rotalaria juncea | Seed | Abortifacient property | 17,3 | |
111 | Rumex steudeli | Polygonaceae | Root | Contraception Activity | 13 |
112 | Ruta graveolens
|
Rutaceae | Root,plant powder | Contraception Activity | 13 |
113 | Sapindus trifoliatus auct.non | Sapindaceae | Pulp seeds | Antiimplantation & Abortification activity | 17 |
114 | Sesamum indicum | Pedaliaceae | Seeds | Oestrogenic activity | 17 |
115 | Sesbania sesban | Fabaceae | Seeds | Antiimplantation activity | 17 |
116 | Striga orobanchioides | Scrophulariaceae | plant | Antiimplantation activity | 14 |
117 | Strychnos potatorum | Loganiaceae | Seed | Contraception Activity | 1 |
118 | Solanum xanthocarpum | Solanaceae | Fruits | Contraception and abortion | 1 |
119 | Tanacetum vulgare | Asteraceae | flowering tops | abortifacient properties | 13,2 |
120 | Taxus wallichiana | Taxaceae | Fresh leaves | Abortion | 4 |
121 | Termanillia bellirica | Combretaceae | Fruits | Spermicidal | 3,2 |
122 | Thespesia populnea soland. | Malvaceae | Bark and fruit | antiimplantation activity | 17 |
123 | Tinospora cordifolia | Menispermaceae | Stem | Decrease sperm count and sperm motility | 4,14 |
124 | Trichosanthus cucumerina | Cucurbitaceae | Plant | Antiovulatory activity
|
17 |
125 | Trigonella foenum gracum | Fabaceae | Seed | Antiostrogenic activity | 13,2,18 |
126 | Tripterygium wilfordii | Celastraceae | Root | Contraception Activity | 2 |
127 | Woodfordia fruticosa | Lythraceae | Flowers | Antiimplantation & Abortification activity | 3 |
129 | Wrightia tinctoria | Apocynaceae | Stem | Atiimplantation activity | 1 |
130 | Zizyphus jujuba | Rhamnaceae | bark | Antiostrogenic activity | 1 |
131 | Zingiber officinale | Zingiberaceae | powder of ginger | abortifacients | 3 |
132 | Ziziphus nummularia | Rhamnaceae | Root bark | induces abortion | 3 |
133 | Zingiber roseum | Zingiberaceae | Stem | Anti-implantation | 1 |
CONCLUSION: In India birth tare control is a serious issue. After some serious and tedious efforts, the rate of birth control has begun to decline. But due to some very common and painful side effects, use of hormonal contraceptives is being avoided.. Women prefer other measures of contraceptives like Copper-T, Condoms, and Diaphragm etc. Since last 5–10 years alternative system of medicine i.e. Unani, Ayurveda and Homeopathy is gaining measurable attention of general public not only in India but Western world also. Efforts are being made to explore the hidden wealth of medicinal plants for contraceptive use. The results of this study indicate that different extracts of some medicinal plants have good potentials for use in control of birth. Therefore it is high time to provide a potent and harmless oral contraceptive with strength of conventional oral contraceptive.
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How to cite this article:
Pradhan DK, Mishra MN, Mishra A, Panda AK, Behera RK, Jha S and Choudhury S: A Comprehensive Review of Plants used as Contraceptives. Int J Pharm Sci Res. 2013; 4(1); 148-155.
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IJPSR
Dusmanta Kumar Pradhan*, Manas Ranjan Mishra , Ashutosh Mishra , Ashok Kumar Panda , Rajani Kanta Behera, Shivesh Jha and Sanjaya Choudhury
Associate Professor, Gayatri College of Pharmacy, Jamadarpali, Sambalpur-768200, Odisha, India
dkpradhan74@gmail.com
20 September, 2012
20 October, 2012
17 December, 2012
http://dx.doi.org/10.13040/IJPSR.0975-8232.4(1).148-55
01 January, 2013