A REVIEW ON MEDICINAL PLANTS EXHIBITING ANTIFERTILITY …
Transcript of A REVIEW ON MEDICINAL PLANTS EXHIBITING ANTIFERTILITY …
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
A REVIEW ON MEDICINAL PLANTS EXHIBITING ANTIFERTILITY
ACTIVITY
Mohammad Azamthulla*1
, Rajkapoor Balasubramanian2
and Kavimani S3
1Department of pharmacology,
Faculty of pharmacy, M. S. Ramaiah University of Applied
Sciences, MSR Nagar, Bangalore, India -560054.
PRIST UNIVERSITY, Centre for Research and Development, Vallam, Thanjavur,
Tamil Nadu- 613403.
2Department of Pharmacology, Faculty of Medicine, Sebha University, Sebha, Libya.
PRIST UNIVERSITY, Centre for Research and Development, Vallam, Thanjavur,
Tamil Nadu- 613403.
3College of Pharmacy, Mother Theresa Post Graduate and Research Institute of Health
Science, Pondicherry- 6050006.
ABSTRACT
Although contraceptives containing estrogen and progesterone are
effective and popular used for family planning, but due to serious
adverse effects produced by synthetic steroidal contraceptives such as
toxicity to gonads, Infertility on temporary or permanent basis,
testicular germ cell cancer, breast/ Prostate cancer, brain
developmental problems, endometriosis and early puberty etc, 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 medicinal plants that could be effectively used in
the place of pills for antifertility activity. The nature has been a source
of medicinal agents for thousands of years and an impressive number
of modern drugs have been isolated from natural sources. Plants are
used as anti-implantation, abortifacient and as contraceptive are well known to the ancient
physicians of India. Various medicinal plant extracts have been tested for their antifertility
activity both in male and female animal models activity and the active agents. This review
presents updated information gathered on medicinal plants used for anti-fertility activity in
both male and females. The aim of this review is to highlight the work on anti-fertility of
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*Correspondence for
Author
Mohammad Azamthulla
Department of
pharmacology, Faculty of
pharmacy, M. S. Ramaiah
University of Applied
Sciences, MSR Nagar,
Bangalore, India -560054.
Article Received on
15 Dec 2014,
Revised on 09 Jan 2015,
Accepted on 03 Feb 2015
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plant origin. For women who can't use modern forms of contraception due to adverse effect
or other reasons, therefore herbs can offer alternatives and reducing fertility would be better
than other contraceptives. This article may help investigators to identify medicinal plants
responsible for anti-fertility activity.
KEYWORD: Herbal Contraceptives, Population Explotion, Birth Control, antifertility,
Medicinal plants.
INTRODUCTION
The world population is the total number of living humans on Earth at a given time. Latest
official current world population estimate is 6,790,062,216. The world population, which
stood at 6.8 billion in 2009, is projected to reach 7 billion in late 2015 and 10 billion in 20501.
The world population has been growing continuously since the end of the Black Death
around 1400[2]
. India is currently the world's second largest country. Demographers expect
India's population to surpass the population of China, currently the most populous country in
the world, by 2030. At that time, India is expected to have a population of more than 1.53
billion while China's population is forecast to be at its peak of 1.46 billion. The population
problem is one of the biggest problems facing the country, with its inevitable consequences
on all aspects of development, especially employment, education, housing, health care,
sanitation and environment. In the case of Ethiopia total population is estimated to be 74.2
million in 2005 with current growth rate of 2.9 per cent per year. The average birth per
woman is 6.14 and the contraceptive prevalence is 8.1 percent[3]
. Birth control is a regimen of
one or more devices, or medications followed in order to deliberately prevent or reduce the
likelihood of pregnancy or childbirth. There are three main routes to preventing or ending
pregnancy; the prevention of fertilization of the ovum by sperm cells ("contraception"), the
prevention of implantation of the blastocyst ("contragestion"), and the chemical or surgical
induction of abortion of the developing embryo or, later, fetus. In common usage, term
"contraception" is often used for both contraception and contragestion. Birth control is
commonly used as part of family planning. Population explosion is the greatest single
problem India is facing today.
History
The history of birth control began with the discovery of the connection between coitus and
pregnancy. Probably the oldest methods of contraception (aside from avoiding vaginal
intercourse) are coitus interruptus, lactational, certain barrier methods, and herbal methods
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(emmenagogues and abortifacients). Coitus interruptus (withdrawal of the penis from the
vagina prior to ejaculation) probably predates any other form of birth control. Although it is
commonly believed that pre-ejaculate fluid can cause pregnancy, modern research has shown
that pre-ejaculate fluid does not contain viable sperm[4]
. There are historic records of
Egyptian women using a pessary (a vaginal suppository) made of various acidic substances
and lubricated with honey or oil, which may have been somewhat effective at killing sperm
Asian women may have used oiled paper as a cervical cap, and Europeans may have used
beeswax for this purpose.Various abortifacients have been used throughout human history in
attempts to terminate undesired pregnancy. Some of them were effective, some were not;
those that were most effective also had major side effects. One abortifacient reported to have
low levels of side effects - Silphium was harvested to extinction around the 1st century5.
Birth control methods[6,7,8]
Physical methods- may work in a variety of ways, among them: physically preventing sperm
from entering the female reproductive tract; hormonally preventing ovulation from occurring;
making the woman's reproductive tract inhospitable to sperm; or surgically altering the male
or female reproductive tract to induce sterility. Some methods use more than one mechanism.
Physical methods vary in simplicity, convenience and efficacy.
Barrier methods- Barrier methods place a physical impediment to the movement of sperm
into the female reproductive tract. The most popular barrier method is the male condom, a
latex or polyurethane sheath placed over the penis. The condom is also available in a female
version, which is made of polyurethane. The female condom has a flexible ring at each end
which secures behind the pubic bone to hold the condom in place, while the other ring stays
outside the vagina. Cervical barriers are devices that are contained completely within the
vagina. The contraceptive sponge has a depression to hold it in place over the cervix. The
cervical cap is the smallest cervical barrier. Depending on the type of cap, it stays in place by
suction to the cervix or to the vaginal walls. The diaphragm fits into place behind the
woman's pubic bone and has a firm but flexible ring, which helps it press against the vaginal
walls. Spermicide may be placed in the vagina before intercourse and creates a chemical
barrier. Spermicide may be used alone, or in combination with a physical barrier.
Hormonal methods- Oral hormonal contraception was the invention of Carl Djerassi
together with Mexican Luis E. Miramontes and Hungarian George Rosenkranz in 1951. The
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synthesis of norethindrone, a progestin-analogue became part of the first successful oral
contraceptive, the combined oral contraceptive pill (COCP).
Progestins- The major portion of the contraceptive effect in hormonal methods is due to the
progestin (a synthetic progestogen) compound. There are three types of progestins: estranes,
gonanes, and pregnanes. Estranes include norethindrone, norethindrone acetate, ethynodiol
diacetate, and lynestrenol. Gonanes include desogestrel, norgestimate, and gestodene.
Gonanes and estranes differ in their half-life and with respect to their estrogenic and anti-
estrogenic effects. Drospirenone is a spironolactone analog with anti-mineralocorticoid and
anti-androgenic activity. Pregnanes are used in injectable methods. The first contraceptive
implant, the original 6-capsule Norplant, was removed from the market in the United States
in 1999, though a newer single-rod implant called Implanon was approved for sale in the
United States on July 17, 2006.
Progestin only contraceptives- Progestin-only pills, also called the 'minipill', are used in a
manner similar to combined OCs. The progestin-only minipill has a dose of progestin that is
very close to the threshold of contraceptive efficacy. Therefore these pills must be taken at
approximately the same time each day and are taken continuously for 28 days of the month
without a pill-free interval. This form of contraception is traditionally most often used in
women who are breastfeeding or in women who have contraindications to estrogen; however,
most women are candidates for this method.
Side Effects: The main side effect associated with progestin-only pills is menstrual cycle
irregularity. Spotting or breakthrough bleeding, amenorrhea, and shortened length of
menstrual cycles are the most common irregularities experienced. A randomized, double-
blind study by the WHO showed that an average of 53% of users had frequent bleeding, 22%
had prolonged bleeding, 13% had irregular bleeding, and 6% had amenorrhea within 3
months of initiation .A recent WHO case-control study of cardiovascular disease and
progestin-only pill use found no significant increase in the risk of acute myocardial infarction
(RR=1.0, 95%CI, 0.2-6.0), stroke (RR=1.1, 95%CI, 0.6-1.9), or venous thromboembolism
(RR=1.8, 95%CI, 0.8-4.2). Thus far, progestin-only pills appear to have little or no effect on
lipid metabolism, carbohydrate metabolism, hypertension, and coagulation factors.
Progestin only injectables- Depo-medroxy progesterone acetate (DMPA; Depo-Provera®)
is a deep intramuscular injection of 150 mg of medroxyprogesterone acetate (MPA) every 12
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weeks. Pharmacologically active levels (>0.5mg/ml) of MPA are achieved within 24 hours of
injection. Serum levels remain >1.0ng/ml for approximately three months after
administration. By the fifth month, levels drop to 0.2mg/ml. DMPA's main mechanism of
action is inhibition of ovulation.
Side Effects: The most commonly cited side effects of DMPA are changes in menstrual
patterns, weight, and mood. After 3 months of use, almost one-half of DMPA users report
amenorrhea with the majority of the remaining women complaining of irregular bleeding.
Progestin only vaginal rings- Progestin-only rings are now in development, contain 100mg
medroxyprogesterone acetate (MPA), and suppress ovulation10
. These rings are placed on day
5 of the cycle and are removed after 21 days of use in order to provide a withdrawal bleed.
Other progestin-only rings included those impregnated with norethindrone; these rings have
been associated with irregular bleeding and ovulation.
Estrogens- In contrast to the long list of progestin formulations, only two estrogenic
compounds are used in hormonal contraceptives: Ethinyl estradiol (EE) and Mestranol. EE is
pharmacologically active whereas mestranol must be converted into EE before it becomes
active. Contraceptives currently on the market contain 35 micrograms of estrogen or less.
Ethinyl estradiol is absorbed rapidly and undergoes extensive hepatic first pass metabolism.
Its plasma half-life has been reported to be in the range of 10-27 hours. Its half-life in tissue,
such as endometrium, appears to be longer.
Intrauterine methods
These are contraceptive devices which are placed inside the uterus. They are usually shaped
like a "T" the arms of the T hold the device in place. There are two main types of intrauterine
contraceptives: those that contain copper (which has a spermicidal effect), and those that
release a progestogen (in the US the term progestin is used).
Mechanism of action: Both medicated and non medicated IUDs can alter the uterine lining so
that it becomes unfavorable for implantation. Release of copper ions also alters fluid in the
uterine cavity in a manner that impairs the viability of sperm, thereby inhibiting fertilization.
This mechanism may be responsible for the high efficacy of copper IUDs as emergency
contraception. IUDs can also alter both sperm motility and integrity: Medicated, or hormonal
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IUDs, can interfere with sperm motility by thickening cervical mucus. Sperm head-tail
disruption has been reported in the presence of a copper IUD.
Sterilization
Surgical sterilization is available in the form of tubal ligation for women and vasectomy for
men. In women, the process may be referred to as "tying the tubes," but the fallopian tubes
may be tied, cut, clamped, or blocked. This serves to prevent sperm from joining the
unfertilized egg. The non-surgical sterilization procedure, Essure, is an example of a
procedure that blocks the tubes. Sterilization should be considered permanent. Although tubal
ligation has been known to be permanent they have created the tubal ligation reversal, which
in this case is to reverse the procedure to once again have children but also it depends on the
kind of tubal ligation procedure that was once done, also depending on the woman's age and
damage done to the tubes.
Behavioral methods
Behavioral methods involve regulating the timing or methods of intercourse to prevent the
introduction of sperm into the female reproductive tract, either altogether or when an egg
may be present.
Mechanism of birth control: The mechanism of action of hormonal contraception is
primarily through the suppression of ovulation.
Progestational effects include:
1. Inhibition of ovulation by suppressing luteinizing hormone (LH);
2. Thickening of cervical mucus, thus hampering the transport of sperm;
3. Possible inhibition of sperm capacitation;
4. Hampered implantation by the production of decidualized endometrium with exhausted
and atrophic glands.
5. Partial inhibition of ovulation in part by the suppression of follicle-stimulating hormone
(FSH) and luteinizing hormone (LH), depending on dose;
6. Alteration of secretions and cellular structures of the endometrium within the uterus.
To control the population, the World Health Organization (WHO) has started a programme
that includes studies on traditional medical practices. Several hormonal contraceptives have
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
been developed and practiced till date but they did not meet the demand of developing
countries as they are chemical based, expensive, sophisticated and have some side effects[9]
.
Medicinal plants with significate anti fertility activity
Some herbal contraceptives have also been developed but again they are less potential for
human beings. Due to these problems, people are now looking for the use of herbal medicines
against various diseases and for controlling fertility[10]
. Modern medicine has provided
several preventive and corrective methods of contraceptives none of which is very safe and
without any serious side effects. The Synthetic or chemical based drugs can interfere with the
endocrine system and produce reproductive, neurological, developmental and metabolic
effects in body. These compounds may have negative effects on the synthesis, secretion,
transport and activity of natural hormones. They disturb the normal hormone level either by
inhibiting the production and metabolism of hormones or by blocking the hormonal action.
Some examples are, Pesticides, Phthalates, Plasticisers inhibit the production of androgen
which in turn affects the male sexual development and alklyphenols, Bisphenol A, Dioxins,
heavy metals, fungicides, insecticides stops the synthesis of estrogen and progesterone and
thus, affects the female sexual development i.e. toxicity to gonads, testicular germ cell
cancer, Breast/ Prostate cancer, endometriosis, these chemicals has shown some other adverse
effects on the reproductive system such as infertility on temporary or permanent basis[11]
. Due
to these reasons, it is necessary to develop purely herbal drug having high efficacy and that
will not have any adverse effects on the reproductive system. 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[12,13]
. 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. The discovery of some herbal contraceptives, safe and
sure is the need Herbal contraceptives were used even by the primitive people of ancient
civilizations to control fertility and prevent pregnancy. Though, the conventional medicine
has discovered some important anti-fertility agents (Contraceptive) for female, their
popularity and utility among women is restricted due to some unwanted and troublesome
effects. The common side effects include obesity, cholelithiasis, gastric trouble and
carcinoma of breast and cervix, asthma and venous thromboembolism[14]
. Hence, The
medical persons are in search of safe and active contraceptive agents of herbal origin. there
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are many plants having scientifically proved anti-fertility activity. These plants may be
valuable source of herbal contraceptive for men and women. Plant products have attracted the
attention of many scientists as a primary source of naturally occurring fertility regulating
agents because of their little or no side effects various plant extracts are reported as
antifertility agents[12]
. Medicinal plants in India have been screened for contraceptive
potential and anti-fertility effects, since the country has always been concerned about
population explosion. The female contraceptive methods were always on higher priority and
men willing to share in the responsibilities of family planning have fewer options of
contraceptions which are effective, reversible, non-irritating and highly expectable. There are
also some herbs that have been found to interfere with normal sperm production, or mobility.
Each herb is used in its own way, so it’s important to have some idea of how they are used, or
could be used. Let’s further define the possible avenues of actions. Traditional sterilization
method based on herbal medicines is used to control population growth rate; including
abortion at initial weeks, preventing conception or making the either member of the couple
sterile. Perusal of literature revealed that enough work has been done on different medicinal
aspects of plants of this area except for gynaecological disorders, abortifacient herbals and
plants used to induce abortion[15,16,17]
. Several plant products inhibit male and female fertility
and may be developed into contraceptives. Even though, many indigenous plants have been
shown to prevent the birth, only few plants have so far been investigated for anti-fertility
activity. Various medicinal plant extracts have been tested for their anti-fertility activity both
in male and female. Some of these plants had spermicidal and altered hormone levels[18,19]
. At
present global attempt has been taken to search out the effect of herbal product for
contraceptive purposes[20]
. 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. Over the years, the amounts and types of these components have changed
in attempts to lower side effects and improve efficacy[21]
. In females medicinal plants may
induce infertility in distinct ways. They may effect on ovary, uterus, hormone production,
inhibition of hormonal action, interfere with implantation, sperm penetration. Some of them
prevents fertilization by generating a protective layer around an egg. On the basis of these
actions, the plants can be divided into different categories as Antifertility plants are the drugs
that obstruct the formation of gametes and interfere with the process of fertilization.
Antiovulatory plant act by suppressing ovulation. These drugs are incorporated either orally
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or by injection. Anti-implantation plants that prevent the attachment or penetration of
fertilized ovum into the uterus. Abortifacients Plants causes early expulsion of foetus[22]
. 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 gonadotropin releasing
hormones. A literature survey revealed that there are about 121 medicinal plants which
possess antifertility activity in females, which are discussed in Table1 along with plant, parts
and its activities.
Though considerable progress has been made in the development of highly effective, acceptable
and reversible methods of contraception among females, progress and possibilities on males are
still slow and limited[23]
. With recent progress towards a better understanding of male
reproductive physiology there is also a need to develop new contraceptive modalities for
male. Several potential approaches for induction of infertility have been investigated over a
long period including hormonal, chemical and immunological approaches. The chemical
compounds affecting testicular function include different groups like steroidal and non-
steroidal among them are: Danazol, Depot medroxy progesterone acetate (DMPA),
Cyproterone acetate (CPA), Levenogestral, Melatonin,α-Chlorohydrin, Metapiron and
Serotonin, but application of all these compounds are failed due to various hazards as they
were proved toxic or idiosyncratic on both the short as well as long term use in the
reproductive organs[24]
. Despite the availability of various contraceptive modalities, one of the
most challenging pursuits in the realm of pharmaceutical and medical sciences is search for
newer, more potent, Recently efforts are being made to explore the hidden wealth of
medicinal plants for contraceptive use. herbal medicine remains one of the common forms of
therapy, available to much of world’s population, to maintain health and to treat diseases.
There has been a steady accumulation of information regarding the screening of plants having
antifertility efficacy[25,26,27,28,29]
. The folklore information and the ancient literature about the
plants and herbs can help the antifertility program. In the recent past a number of plants have
been identified and evaluation of extracts and active principles from different parts of plants
like seeds, roots, leaves, flowers, stem or stem barks have been done by various
researchers[30,31,32,33,34,35,36]
. A literature survey revealed that there are about 95 plants which
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possess antifertility activity in males, which are discussed in Table: 2 along with plant, parts
and its activities.
Table 1: Medicinal plants exhibiting antifertility activity in females
S.
No Botanical Plants Family Parts Activity
1. Abroma angusta Sterculiaceae Roots Antiimplantation & Abortification activity[37,38]
2. Abrus precatorius Fabaceae Seeds Abortifacient activity[40,41,42,39]
3. Acalypha indica Euphorbiaceae Whole
plant Antioestrogenic activity
[39,43]
4. Achillea
millefolium Asteraceae Flowers Contraception Activity
[42]
5. Achyranthus
aspera Amranthaceae
Whole
plant
Antiimplantation & Abortification
activity[42,37,44]
6. Acacia leucophploea Fabaceae Roots Antifertility activity[45]
7. Abies webbiana Pinaceae Leaf Anti implantation activity[46]
8. Adhatoda vasica Acanthaceae Leaves Antiimplantation & Abortification
activity[37,39,44]
9. Aegle Marmelos
Corr Rutaceae Leaf abortifacient activity
[47]
10. Aerva lanata Amaranthaceae Aerial part Anti implantation[44]
11. Afromosia
laxiflora Fabaceae Stem bark
Antigonadotropic activity, Block oestrous
cycle[48]
12. Ailanthus excelsa Simaroubaceae Leaf &
Bark Anti-implantation
[42,48]
13. Alangium
salvifolium Alangiaceae Sem bark Abortifacient, anti-implantation
[42,49,50,51,44]
14. Albizzia lebbec Mimosacaeae Seeds
Roots, Antifertility
[49]
15. Allium cepa Liliaceae Bulb Antiimplantation activity[37]
16. Amaranthus
spinous Amaranthaceae Roots Inhibit fusion of ovum
[40]
17. Amaranthus
viridis Amaranthaceae Root Contraception Activity
[49]
18. Ananas comosus Bromeliaceae Fruit,
leaves Abortifacient
[49]
19. Aristolochia
tagala Aristolochiaceae
Whole
plant Anti-implantation
[37]
20. Artemisia fricana Asteraceae Leaf Abortion[49]
21. Aspilia africana Asteraceae Leaves Antiovulatory activity[42]
22. A.ropenckia
populnea Celastraceae Pods Antiimplantation & Abortification activity
[48
23. Azadirachta indica Maliaceae Leaf antiandrogenic property[39,49,40,51,38]
24. Bacopa monnieri Scrophulariaceae Whole plant Contraception Activity[42]
25. Balanites
roxburghii Zygophyllaceae Fruit Contraception Activity
[37,42]
26. Ballota undulate Labiatae Leaves
flowers Antiimplantation activity
[37,42]
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27. Biophytum
sanctivum Oxalidaceae Leaves Anti-implantation
[50,52]
28. Bougainvillea Nyctaginaceae Leaves Antifertility[52]
29. Butea monosperma
Lam Papilionaceae
Whole
plant Inhibit ovulation
[38,40,49,53,54]
30. Calotropis
procera Ascrophluariceae Roots Anti-implantation
[37]
31. Cananga odorata Annonaceae Root bark Contraception Activity[42]
32. C. mum
helicacabum Spindaceae
Whole
plant Anti-implantation
[52]
33. Carica papaya Caricaceae Latex Antiimplantation & Abortification
activity[42,37,40,53]
34. Careya arborea Roxb Lecythidaceae Roots Anti fertility activity[55]
35. Carum carvi Apiaceae Rhizome Antioestrogenic activity[42]
36. Cassia fistula Caesalpiniaceae Pods seeds Antiimplantation activity[42,39]
37. Cicer arietinum Paplionaceae Seeds Oestrogenic activity[42]
38. Cissampelos
pareira Menispermaceae Leaves Antioestrogenic activity
[39,41,56]
39. 4 Cissampelos pareira Menispermaceae Whole
plant Antifertility activity
[57]
40. 5 Citrus medica Linn Rutaceae Fruit peel Anti fertility activity[58]
41. C. Aconitifolius Euphorbiaceae Leaves Contraception Activity[37]
42. Cola nitida Sterculiaceae Stem bark Antigonadotropic activity, Block oestrous
cycle[48]
43. C.oppositifolia Lamiaceae Leaf Contraception Activity[42]
44. C. macrocarpum Barringtoniaceae Stem bark Antigonadotropic activity[42]
45. Crataeva nurvala Capparidaceae Stem bark Antioestrogenic activity[39,48]
46. Crotalaria juncea Papilionaceae Seeds Anti-implantation activity[42,52]
47. Croton roxburghii Euphorbiaceae Bark Antioestrogenic activity[42]
48. Cuminum
cyminum Apiaceae Seeds Contraception Activity
[42]
49. Curcuma aromatic Zingiberaceae Rhizome Antioestrogenic activity[37,40,41]
50. Curcuma longa Zingiberaceae Rhizome Antiostrogenic activity[42,50]
51. Cyclea burmanni Menispermaceae roots estrogen effect[37]
52. Cyperus rotundus Cyperaceae Rhizome Oestrogenic activity[50,59]
53. C. Anthelminticum Asteraceae Seeds post-coital anti-implantation activity[60]
54. Daucus carota Apiaceae Seeds Antiimplantation & Abortification activity[40]
55. Dendrophthoe
falcate Loranthaceae Areal parts Antioestrogenic activity
[48]
56. Derris coriacea Papillionaceae Root
powder Abortifacient activity
[48,51,44,61]
57. Dioscorrea
bulbifera Dioscoreaceae Tuber Inhibit oogenesis
[52]
58. Dipsacus mitis Spindaceae Root Increase progesterone secretion[40,49]
59. Embelica ribes Myrsinaceae Whole
plant anti-implantation activity
[62]
60. Ferula jaeschkena Umbelliferae Whole
plant
Antifertility activity[63].
61. Ficus religiosa Mosaceae Seeds Inhibit the release of ovum from the ovary37
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
62. Foeniculum
vulgare Apiaceae Fruits Contraceptive
[48,37,38]
63. Fterocarpuserinac
eus Fabaceae Steam bark Antigonadotropic activity
[37]
64. Guaiacum
officinale Zygophyllaceae Areal parts Abortifacient
[37]
65. G. Herbacium. Malvaceae Stem, seeds Antiimplantation & Abortification activity[37]
66. Grewia asiatica Tiliaceae Seeds Antiimplantation & Abortification
activity[37,48,40,39,61]
67. Glycyrrhiza
glabra Paplionaceae Roots Oestrogenic activity
[37,52]
68. Hibiscusrosa
sinensis Malvaceae flowers anti-fertility activity
[64]
69. Hyptis suaveolens Lamiaceae Leaves Abifertility[48]
70. Hymenocardia acida
Tu Phyllanthaceae Stem bark Antifertility activity
[65]
71. Jatropha curcus Euphorbiaceae Fruits Abortifacient[48]
72. Juniperus
communis Cupressaceae Seeds Antiimplantation
[48]
73. Liadenbergia
indica Acanthaceae Rhizome Arrest oogenesis
[37]
74. Michelia
Champaca. Magnoliaceae Bark Antiimplantation & Abortification activity
[37]
75. Mimosa pudica Mimosaceae Roots Contraception and abortion[42,52,49]
76. Martynia annua Pedaliaceae Roots Contraception Activity[49,51]
77. Mesua ferrea Calophyllaceae Flowers anti implantation activity[66]
78. Mentha arevensis Lamiaceae Leaves Contraception Activity[52]
79. Mentha longifolia Lamiaceae Leaves Contraceptive[52]
80. Melia azedarach Meliaceae Leaves Antiimplantation activity[42]
81. M. cymbalaria Cucurbitaceae Roots Anti-implantation activity[37,41]
82. Nelumbo nucifera Nymphaeaceae Seeds Antioestrogenic activity[37,50]
83. Nigella sativa Ranunculaceae Seeds post-coital contraceptive[67]
84. Ocimum
gratissimum Labiataceae Leaves Contraception Activity
[37]
85. Oxalis corniculata Oxalidaceae Whole
plants Oestrogenic activity
[39,48]
86. Piper longum Piperaceae Roots
&fruits Antifertility
[42]
87. Piper nigrum Piperaceae Fruit
powder Contraception Activity
[48]
88. Piper betel Pedaliaceae Petiol Antiostrogenic activity[37]
89. Punica granatum Punicaceae Fruits Antiimplantaiion activity[49]
90. Plantago ovata Plantaginaceae Seeds Abortion[42,39]
91. P.gonum
hydropiper Polygonaceae Roots antiostrogenic activity
[39,48]
92. Physalis alkekengi Piperaceae Whole
plants Anti implantation activity
[37]
93. Plumbago rosea
Linn Plumbaginaceae Leaves Anti fertility activity
[68]
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
94. Phyllanthus
amarus Euphorbiaceae
Whole
plant Contraception Activity
[39,52,49]
95. P.rocarpus
ennaceus Fabaceae Stem bark
Antigonadotropic activity, Block oestrous
cycle[37]
96. P lumbago
zeylanica Plumbaginaceae Roots Abortifacient property
[48,42,51,39]
97. Pergularia daemia Asclepiadaceae twing Anti-implantation, late abortifacient[41]
98. Quassia amara Simaroubaceae Bark leaves Contraception Activity[48,49,38]
99. R.Hypocrateriform
is Convolvulaceae Areal parts Antiovulatory activity
[42,39]
100. Rotalaria juncea Papilionaceae. Seeds Abortifacient property[42,48]
101. Rumex steudeli Polygonaceae Roots Contraception Activity[37]
102. Ruta graveolens Rutaceae Whole
plant Contraception Activity
[37]
103. S. trifoliatus
auct.non Sapindaceae Pulp seeds Antiimplantation & Abortification activity
[42]
104. Sesamum indicum Pedaliaceae Seeds Oestrogenic activity[42]
105. Sesbania sesban Fabaceae Seeds Antiimplantation activity[42]
106. S. Orobanchioides Scrophulariaceae Whole
plant Antiimplantation activity
[38]
107. Strychnos
potatorum Loganiaceae Seeds Contraception Activity
[49]
108. S.num
xanthocarpum Solanaceae Fruits Contraception and abortion
[49]
109. Tanacetum
vulgare Asteraceae Flowers abortifacient properties
[37,39]
110. Taxus wallichiana Taxaceae Fresh
leaves Abortion
[52]
111. Terminalia arjuna Combretaceae Bark anti implantation as well as abortifacient
activity[69]
112. Thespesia
populnea Malvaceae
Bark &
fruit antiimplantation activity
[42]
113. T.santhus
cucumerina Cucurbitaceae
Whole
plant Antiovulatory activity
[42]
114. Trigonella foenum Fabaceae Seeds Antiostrogenic activity[37,39,44]
115. Tripterygium
wilfordi Celastraceae Roots Contraception Activity
[39]
116. Woodfordia
fruticosa Lythraceae Flowers Antiimplantation & Abortification activity
[48]
117. Wrightia tinctoria Apocynaceae Stem Antiimplantation[49]
118. Zizyphus jujuba Rhamnaceae bark Antiostrogenic activity[49]
119. Zingiber officinale Zingiberaceae Powder Abortifacients[48]
120. Ziziphus
nummularia Rhamnaceae Bark, roots induces abortion
[48]
121. Zingiber roseum Zingiberaceae Stem Anti implantation activity[49]
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
Table 2: Medicinal plants exhibiting antifertility activity in Males
S.
No Botanical Plants Family Parts Activity
1 Abrus precatorius Fabaceae Seed
Reduced sperm motility and density[70,71]
,
Antispermatogemic effect and reduced
activity of testicular enzyme[72]
, Post
testicular antifertilityeffect[73]
, reduced
sperm motility[74]
, sperm motility
activity[75]
, Antispermatoenic and
antiandrogenic effect[75]
2 Acacia concinna Leguminosae Stem bark Spermicidal and semen coagulating
activity[33]
3 Acacia auriculae Fabaceae Fruits Sperm immobilization effect[76]
4. Acacia caesia Fabaceae Fruit Immobilization of spermatozoa[77]
5 Achillea milefolium Asteraceae Flowers Antispermatogenic effect[78]
6 Achyranthes aspera Amaranthaceae Root Spermicidal action[79]
7 Actiniopteris
dichotoma Adiantaceae
Whole
plant Antifertility activity
[80]
8 Aegle marmelos Corr. Rutaceae Whole
Plant
Inhibit spermatogenesis & sperm
motility[81,82]
9 Albizia lebbek Linn. Fabaceae Pod Bark Antifertility activity[83,84]
10 Albizia procera
Roxb. Fabaceae
Seed &
root
Spermicidal and semen coagulating
activities[33]
11 Allium sativum Linn Liliaceae Pod Antispermatogenic activity[85]
12 Aloe barbadensis
Mill. Lilaceae Leaves Antiandrogenic activity
[86]
13 Alstonia scholaris
R.Br. Apocynaceae Stem bark Decline germ cell population
[87,88]
14 Anagallis arvensis
Linn Primulaceae
Whole
plant
Spermicidal and semen coagulating
activities[33]
15 Ananas comosus
Merr. Bromeliaceae
Unripe
fruit Antispermatogenic activity
[35]
16 Andrographis
paniculata Acanthaceae Leaves
Antispermatogenic and
antiandrogenic[89,90]
17 Annona squamosa
Linn Annonaceae Seed Antispermatogenic activity
[91]
18 Aristolochia indica
Linn Aristolochiaceae Root
Antispermatogenic and antiandrogenic
effects[92]
19 Austroplenckia
populnea Celastraceae plant
Alter sexual behaviour, sperm
concentration[93]
20 Azadirachta indica Meliaceae Seed antiandrogenic effect
[94], Spermicidal
activity[95]
21 Balanites roxburghii Balanitaceae Fruit Antispermatogenic activity[96]
22 Bambusa
arundinacea Graminaceae
Tender
Stem Reduced sperm motility
[97]
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
23 Barleria prionitis
Linn. Acanthaceae Roots Antifertility effect
[98]
24 Berberis chitria
Buch. Berberidaceae Roots Antispermatogenic action
[99]
25 Bursera sp Burseraceae Stem, Leaf Sperm aggregation[100]
26 Butea monosperma
Lam. Fabaceae
Whole
plant Antispermatogenic effect
[101]
27 Calotropis procera
(Ait.) Asclepiadaceae Roots Antispermatogenic effect
[102]
28 Cannabis sativa Linn Cannabaceae Leaves Testicular lesions[97]
29 Carica papaya Linn Cariaceae Fruit Antispermatogenic activity[103]
30 Catharanthus roseus
G. Apocynaceae Leaves Antispermatogenic activit
[104]
31 Celastrus paniculatus Celastraceae Seeds Antispermatogenic activity[105]
32 Cichorium intybus
Linn. Asteraceae
Whole
plant Antispermatogenic activity
[106]
33 Cinnamomum
camphora Lauraceae Seeds inhibition of spermatogenesis
[107]
34 Citrullus colocynthis Cucurbitaceae Fruit Impairment of sperm[106]
35 C. kia oppositifolia Lamiaceae Leaves Antifertility activity[108]
36 C. volvulus
microphyllus Convolvulaceae
Whole
plant Antispermatogenic effect
[109]
37 Crotalaria juncea
Linn. Leguminosae Seeds Arrest of spermatogenesis activity
[110]
38 Curcuma longa Linn. Zingiberaceae Roots Antiandrogenic effect[111]
39 Cuminum cyminum
Linn. Apiaceae Seeds Antispermatogenic effect
[112]
40 Cyclamen persicum
Mill. Primulaceae
Whole
plant Spermicidal activity
[113]
41 Cynomorum
coccineum Cynomoriaceae
Whole
plant Effect on epididymal sperm pattern
[114]
42 Daucus carota Linn. Umbeliferae Seeds Spermicidal activity[115]
43 Desmodium
gangeticum Fabaceae
Whole
plant Antifertility effect
[116]
44 Diploclisia echinatus Boraginaceae Stem Spermicidal activity[117]
45 Echeveria gibbiflora
DC Crassulaceae
Whole
plant Reduced sperm motility
[118]
46 Echinops echinatus
Rox. Asteraceae Roots
Reduces sperm density in cauda
epididymi[119]
47 Embelia ribes Burm.
f. Myrsinaceae Berry
Spermicidal activity & Antifertility
activity[110,120]
48 Euphorbia neriifolia Euphorbiaceae Roots Antispermatogenic effects[121]
49 Foeniculum vulgare
Mill Apiaceae
Whole
plant Antiandrogenic activity
[122]
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
50 Gloriosa superba
Linn. Liliaceae Tuber Shrinkage of Seminiferous tubule
[123]
51 Gossypium
herbaceum Malvaceae Seeds Reduced sperm density
[124]
52 Hedera nepalensis K. Araliaceae Infloresce
ne Immobilization of spermatozoa
[125]
53 Hibiscus rosa-
sinensis Malvaceae Flowers
Antispermatogenic and antiandrogenic
activity[126]
54 Hyptis suaveolens
Poit. Lamiaceae
Whole
plant Antifertility effect
[127]
55 Justicia simplex D.
Don Acanthaceae Flowers
Sperm acrosomal membrane stabilizin
action[128]
56 Lepidium meyenii
Walp. Brassicaceae Roots Invigorates spermatogenesis
[129]
57 Malvaviscus conzattii Malvaceae Flowers Antifertility activity[130]
58 Martynia annua Linn. Martyniaceae Roots Antispermatogenic activity[131]
59 Mentha arvensis Linn Lamiaceae Leaves Antiandrogenic effect[132]
60 Millettia auriculata Fabaceae Leaves Antifertility activity[133]
61 Momordica charantia Cucurbitaceae Seeds Antispermatogenic, Antisteroidogenic
activity[134]
62 Mondia whiteii Apocynaceae Root bark Reversible antispermatogenic activity[135]
63 Mucuna urens Medik. Fabaceae Seeds Effect on gonads and sex accessory
glands[136]
64 Myristica fragrans
Houtt Myristicaceae Seeds Premature ejaculation
[137]
65 Nicotiana tabacum
Linn. Solanaceae Leaves Antiandrogenic effects
[138]
66 Ochna jabotapita
Linn. Ochnaceae
Whole
plant Semen coagulating activity
[139]
67 Ocimum sanctum
Linn. Lamiaceae Leaves Arrest of spermatogenesis
[140,141]
68 Ophiopogon
intermedius Asparagaceae Rhizome Spermicidal activity
[142]
69 Piper betle Linn. Piperaceae Petiole Reduced sperm motility[143,144]
70 Piper longum Linn. Piperaceae Flowers Antispermatogenic effect[145]
71 P. sporum
neelgherrense Pittosporaceae
Whole
plant
Spermicidal and semen coagulating
activity[146]
72 Plumbago zeylanica Plumbaginaceae Roots,
bark Antiandrogenic activity
[147]
73 Plumeria alba Linn. Apocynaceae Leaves Total sterility[148]
74 Portulaca oleracea
Linn Portulacaceae Seeds Impairment of spermatogenesis
[149]
75 Pterocarpus
santalinus Fabaceae Stem bark Semen coagulating activity
[139]
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
76 Pueraria tuberosa
DC. Fabaceae Roots Inhibition of spermatogenesis
[150]
77 Pyrus cuspidata
Bertol. Rosaceae
Whole
plant
Spermicidal and semen coagulating
activity[33]
78 Quassia amara Linn. Simaroubaceae Stem, bark Antifertility activity[151,152]
79 Ricinus communis
Linn Euphorbiaceae
Whole
plant Alteration in the sperm motility
[153]
80 Rubus ellipticus Sm. Rosaceae Whole
plant Antifertility activity
[154]
81 Salvia fruticosa Mill Lamiaceae Leaves Antifertility activity[155]
82 Sapindus mukorossi Sapindaceae fruits Alters the sperm Pericarp pericarp
membrane [156]
83 Sarcostemma acidum
Vot Asclepiadaceae Stem Arrest spermatogenesis
[157]
84 Semecarpus
anacardium Anacardiaceae Seeds Antiandrogenic effect
[158]
85 Solanum surattense Solanaceae Berries Impairment of spermatogenesis[159]
86 Stephania
hernandifolia Menispermaceae Leaves Diminution of testicular activities
[160]
87 Stevia rebaudiana
Bert Asteraceae
Whole
plant Decrease in testosterone
[161]
88 Striga orobanchoides Scrophularaceae Whole
plant Antispermatogenic effect
[162]
89 Syzygium cuminii
Linn. myrtaceae Seeds Antispermatogenic effect
[163]
90 Terminalia arjuna
Wight Combretaceae Bark Antispermatogenic effect
[164]
91 Tinospora cordifolia Menispermaceae Stem Antifertility activity[165]
92 Trigonella foenum Fabaceae Seeds Antiandrogenic effect[166,167]
93 T. Hypoglaucum Celastraceae Roots Reversible regressive effect[168]
94 Tripterygium
wilfordii Celastraceae Roots Antifertility activity
[169]
95 Tylophora asthmatica Asclepiadaceae Leaf ,
stem Antispermatogenic activity
[170]
CONCLUSION
Population explosion is leading cause of poverty and pollution in developing countries.
Several potential approaches for induction of infertility have been investigated over a long
period. Herbal contraceptives offer alternatives for men and women who have problems with
or lack access to modern contraceptives particularly living in the rural areas in developing
nations with very high population like India. 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.
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Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
From this study, it is clear that the medicinal plants play a vital role against on various
diseases. Various medicinal plants extracts have significant anti-fertility activity. The
antifertility agent can work by any one or combination mechanism. These include, rapid
expulsion of the fertilized ova from the fallopian tube or by the tube locking mechanism; as a
blastocyst-toxic agent; by the inhibition of implantation due to a disturbance in estrogen-
progesterone balance; or through foetal absorption or abortion, perhaps due to lack of supply
of nutrients to the uterus and thus to the embryo in females and in males the plants extracts
also affect the generation of sperm as well as the endocrine function of the testes themselves.
The plants effect upon the male reproductive system has been studied in animals by
observation of changes in weight, histology and endocrine functions. the researchers have
suggested that it may be due to the inhibition of synthesis or the release of gonadotropins
from the pituitary gland, a direct inhibitory effect of tested or hormonal activity.
The review results showed that above-mentioned medicinal plants possess anti- fertility
activity on dose dependent manner. The results of this study indicate that extracts of some
medicinal plant have good potentials for use in control of birth. Hence, it is concluded that
this review may focus the researchers attention for clinical studies which could be of great
scientific contribution to the society.
REFERENCE
1. World Population Prospects: The 2008 revision. Population newsletter. 2009; (87): 1-2.
2. Robock A, Ammann L, Oman D, Shindell S Levis & Stenchikov G. Did the Toba
volcanic eruption of ~74k BP produce widespread glaciation? Journal of Geophysical
Research, 2009; 114: 101-4.
3. Thakur DS, Kumar P, Kujur A, Kumar P & Kumar R. Contribution of Male
Contraception in World Population. J Pharm Sci & Res, 2010; 2(7): 384- 93.
4. Zukerman Z, Weiss DB & Orvieto R. Does Pre ejaculatory Penile Secretion Originating
from Cowper's Gland Contain Sperm. Journal of Assisted Reproduction and Genetic,
2009; 20(4): 157–59.
5. Tatman J, Silphium A. Ancient Egyptian Midwifery and Childbirth. Minnesota State
University, John jeneck, 2005; 404-06.
6. McCann MF & Potter LS. Progestin-only oral contraception: a comprehensive review.
Contraception. 1994; 50: 9-195.
7. Mishell. Pharmacokinetics of depot medroxyprogesterone acetate contraception. J Reprod
www.wjpps.com Vol 4, Issue 03, 2015.
261
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
Med. 1996; 41(5): 381-90.
8. Sangi-Haghpeykar H, Poindexter AN, Bateman, Louise. Ditmore J & Randall.
Experiences of injectable contraceptive users in an urban setting. Obstet Gynecol.1996;
88:227-33.
9. Kaur R, Sharma A, Kumar R & Kharb R. Rising Trends towards Herbal Contraceptives.
Scholars Research Library. J. Nat. Prod. Plant Resour, 2011; 1(4): 5-12.
10. Patil SJ & Patil SB. Antiovulatory activity of petroleum ether extract of chromatographic
fractions of Citrus medica seeds in albino rats. International Journal of Medical Sciences,
2013; 13(6): 410-417.
11. Schug TT, Janesick A, Blumber B & Heindela JJ. Endocrine disrupting chemicals and
disease susceptibility. Journal of Steroid Biochemistry & Molecular Biology, 2011; 127:
204–15.
12. Shah GM, Khan MA, Ahmad M, Zafar M & Khan AA: Observations on antifertility and
abortifacient herbal drugs. African Journal of Biotechnology, 2009; 8(9): 1959-64.
13. Kaur R, Sharma A, Kumar R & Kharb R: Rising Trends towards Herbal Contraceptives.
Journal of Natural Products and Plant Resour, 2011; 1(4): 5-12.
14. Kumud Bala, Mahima Arya & Deepshikha Pandey Katare. Herbal Contraceptive: An
Overview. World Journal of Pharmacy and Pharmaceutical Sciences, 2014; 3(8): 1305-
26.
15. Dehghan MH, Martin T & Dehghanan R. Antifertility effect of Iranian neem seed
alcoholic extract on epididymal sperm of mice. Iranian Journal of Reproductive
Medicine, 2005; 3(2): 83-89.
16. Gupta RS & Sharma R. A review on medicinal plants exhibiting antifertility activity in
males. Natural Product Radiance, 2006; 5(5): 389-10
17. Hoesla CE, Saadb F, Pöppela M & Altwein JE. Reversible, Non-Barrier Male
Contraception: Status and Prospects. Eur Urol, 2005; 48(5): 712-22.
18. Montaserti A, Pourheydar M, Khazaei M & Ghorbani R. Anti-fertility effects of Physalis
alkekengi alcoholic extract in female rat. Iranian Journal of Reproductive Medicine,
2007; 5(1): 13-16
19. Mishra N, Joshi S, Tondon VL & Munjal A. Evaluation of Antifertility potential of
aqueous extract of Bougainvillea spectabilis leaves in swiss albino mice. Int J Pharm Sci
Drug Res, 2009; 1(1): 19-23.
20. Ahmad S, Jamal Y & Mannan A: Review of Some Medicinal Plants with Anti-fertility
Activities. Unani Res, 2011; 1(2): 24-28.
www.wjpps.com Vol 4, Issue 03, 2015.
262
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
21. Qureshi AA, Sanghai DB & Padgilwar SS: Herbal options for contraception: A review.
Pharmacognosy Magazine, 2006; 2(8): 204-15.
22. Kabra M, Bhandari S, Gupta R & Sharma A. A review on herbal contraception. World
Journal of Pharmacy and Pharmaceutical Sciences, 2013; 2(5): 2569-77.
23. Allag IS & Rangari K, Extragenomic action of steroids on spermatozoa: Prospects for
regulation of fertility, Health Popul, 2002; 25(1): 38-44.
24. Prasad MRN. Control of fertility in the male, In: Pharmacology and the future of man,
Proceendings 5th International Congress of Pharmacology, San Francisco Basel, 1973; 1:
208-20.
25. Chopra RN, Nayar SL & Chopra IC. Glossary of Indian Medicinal Plants, CSIR, New
Delhi, 1956; pp222.
26. Casey RCD. Alleged antifertility plants of India, Indian J Med Sci, 1960; 14: 590-600.
27. Farnsworth NR, Bingel AS, Cordell GA, Crane FA & Fong HHS. Potential value of
plants as source of new antifertility agents I, J Pharm Sci, 1975; 64: 535-49.
28. Farnsworth NR, Bingel AS, Cordell GA, Crane FA and Fong HHS, Potential value of
plants as source of new antifertility agents II, J Pharm Sci, 1975; 64: 717-36.
29. Henshaw PS. Physiological control of fertility, Science, 1953; 117: 572-82.
30. Orzechowski G. Nature against nature, Deut Apoth, 1972; 24: 277-78.
31. Brondegaard VJ. Contraceptive plant drugs, Planta Med, 1973; 23: 167-72.
32. Kholkute SD, Mudgal V & Deshpande PJ, Screening of indigenous medicinal plants for
antifertility potentiality, Planta Med, 1976; 29(2): 151-55.
33. Kamboj VP & Dhawan BN. Research on plants for fertility regulation in India, J
Ethnopharmacol, 1982; 6: 191-93.
34. Zhu D. Plant constituents with biological activity reported in recent years, Zhongcaoyao,
1982; 13: 377-82.
35. Satyawati GV. Indian Plants and Plant Products with Antifertility Effect [A review of
literature between 1975-1982, ICMR, New Delhi, 1983.
36. Bhakuni DS, Dhar ML, Dhar MM, Dhawan BN & Mehrotra BN. Screening of Indian
plants for biological activity Part 2, Indian J Exp Biol, 1969; 7: 250-62.
37. Pokharkar RD, Saraswat RK & Kotkar S. Survey of plants having antifertility activity
from Western Ghat area of Maharashtra state. Journal of Herbal Medicine and
Toxicology, 2010; 4(2): 71-75.
38. Kalita JC, Chakrabarty A & Tanti B. Assessment of Antifertility activity of some
traditionally used plants by different ethnic communities in three districts of Assam,
www.wjpps.com Vol 4, Issue 03, 2015.
263
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
India. Journal of Herbal Medicine and Toxicology, 2011; 5(2): 65-72.
39. Kaur R, Sharma A, Kumar R & Kharb R. Rising Trends towards Herbal Contraceptives.
Journal of Natural Products and Plant Resour, 2011; 1(4): 5-12.
40. Shrivastava S, Dwivedi S, Dubey D & Kapoor S. Traditional Herbal Remedies from
Madhya Pradesh used as oral Contraceptives- A Field Survey. International Journal of
Green Pharmacy, 2007; 1(1): 18-22.
41. Azmeera M, Elumalai A, Eswaraiah MC & Mathangi N. An Updated Review on Anti-
Fertility Plants-2012. Inter. J. of Pharmacotherapy, 2012; 2(1): 4-6.
42. Priya G, Saravanan K & Renuka C. Medicinal plants with potential antifertility activity-
A review of sixteen years of herbal medicine research (1994-2010). International Journal
of PharmTech Research, 2012; 4(1): 481-94.
43. Kong YC, Nag KH, Wat K H, Wong A, Saxana IF, But PPH & Chang HT. Yuechukene,
a novel anti-implantation indole alkaloids from Murraya Paniculat. Planta Medica,1985;
51(2): 304-07.
44. Raj A, Singh A, Sharma A, Singh N, Kumar P & Bhatia V. Antifertility Activity of
Medicinal Plants on Reproductive system of Female Rat. International Journal of Bio-
Engineering Sciences & Technology-IJBEST, 2011; 02(03): 44-50.
45. Dheeraj Ahirwar. Anti fertility activity of Acacia leucophploea. Scholars Research
Library, 2011; 3(3): 411-13.
46. Anonymous. Pharmacological investigations of certain medicinal plants and compound
formulations used in Ayurveda and Siddha, New Delhi, 1996; pp474.
47. Gangadhar R & Lalithakumari K. Abortifacient activity of the aqueous extract of the
leaves of Aegle marmelos (Bel) in albino rats. Indian Drugs 1995; 32: 129-31.
48. Pathak AK, Mallurwar VR, Kondalkar AK and Soni S: A Review of Plants with Anti-
Fertility Activity. Nig J Nat Prod and Med 2005; 09: 4-10.
49. Shah GM, Khan MA, Ahmad M, Zafar M and Khan AA: Observations on antifertility and
abortifacient herbal drugs. African Journal of Biotechnology 2009; 8(9): 1959-1964.
50. Gediya S, Ribadiya C, Soni J Shah N & Jain H. Herbal Plants Used as Contraceptives.
Internation Journal of Current Pharmaceutical Review and Research, 2011; 2(1): 47-53.
51. Ravichandran V, Arunachalam G, Subramanian N & Suresh B. Contraception and its
significance in Traditional System of Medicines. International Journal of Pharmaceutical
Sciences, 2009; 1(1): 1-21.
52. Ahmad S, Jamal Y & Mannan A: Review of Some Medicinal Plants with Anti-fertility
Activities. Unani Res, 2011; 1(2): 24-28.
www.wjpps.com Vol 4, Issue 03, 2015.
264
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
53. Sinha RK & Nathawat GS. Anti-fertility effects of some plants used by the street herbal
vendors for birth control. Ancient Science of Life, 1989; (2): 66-68.
54. Haloi K, Kalita E & Kalit JC. Effects of methanolic root extract of Careya arborea Roxb
on ovarian histology of albino mice. Nebio, 2010; 1(1): 14-17.
55. Ashish Mishra, Saket Verma & Abhinav Prasoon Mishra. A Plant Review: Butea
Monosperma (Lam.) Kuntze. Research Journal of Pharmaceutical Biological and
Chemical Sciences, 2012; 3(1): 700-14.
56. Ganguly M, Borthakur MK, Devi N & Mahanta R: Antifertility activity of the methanolic
leaf extract of Cissampelos pareira in female albino mice. Journal of Ethnopharmacology,
2007; 111: 688–91.
57. Samatha Jhamuna, Bhattacharya & Cissampelos pareira. A promising anti fertility agents.
International Journal of Research in Ayurveda and Pharmacy, 2011; 2(2): 439-42.
58. Monica kachroo & Agrawal SS. Antiimplantation activity of different extract of the peels
of Citrus medica, Linn. International Journal of Pharmtech Research, 2011; 3(1): 535-39.
59. Badami S, Aneesh R, Sankar S, Sathishkumar MN, Suresh B & Rajan S. Antifertility
activity of Derris brevipes variety coriacea. Journal of Ethnopharmacology, 2003; 84: 99-
104.
60. Sharma S, Mehta BK & Gupta DN. Screening of post-coital antiimplantation activity of
Machela champaka (anthers) and Centratherum anthelminticum (seeds). Indian Drugs,
1994; 31: 280-81.
61. Kamboj VP & Dhawan VN: Research on plants for fertility regulation in India. Journal of
Ethnopharmacology 1982; 6(2): 191-226.
62. Prakash SS. Anti-fertility investigations on Embellin. PLANTA MEDICA, 1981;41:259-
66.
63. Pathak S, Jonathan S & Prakash AO. Timely administration of extract of Ferula
jaeschkena causes luteolysis in the ovary of cyclic guineapig. Indian JPhysiolPharmacol,
1995; 39: 395-9.
64. Reddy MC, Murthy RKD & Saraswati BP. Antispermatogenic and androgenic activities
of various extracts of Hibiscus rosa sinesis in albino mice. Indian J Exp Biol, 1997; 35:
1170-74.
65. Abu Adakole Hyacinth & Uchendu Chukwuka Nwocha. Antifertility activity of aqueous
ethanolic extract of Hymenocardia acida stems bark in female rats. Iranian Journal of
Reproductive Medicine, 2011; 9(3): 217-22.
66. Seshadri C & Pillai S R, Antifertility activity of a compound Ayurvedic preparation. J Sci
www.wjpps.com Vol 4, Issue 03, 2015.
265
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
Res Pl Med, 1981; 2(1&2): 1-3.
67. Keshri G, Singh MM, Lakshmi V, Kamboj VP. Post-coital contraceptive efficacy of the
seeds of Nigella sativa in rats.Indian J Physiol Pharmacol, 1995; 39: 59-62.
68. Sheeja E, Joshi SB, Jain DC. Anti ovulatory and estrogenic activity of Plumbago rosea
leaves in female albino rats. Indian Journal of Pharmacology, 2011; 41(6): 273-277.
69. Lal B & Udupa KN. A preliminary study of antifertility effect of an indigenous drug –
Arjuna (Terminalia arjuna) JRAS, 1993; 14(1): 65-169.
70. Bajaj A, Mathur RS, Wadhwa M & Bahel S, Effect of steroidal fraction of Abrus precatorius
on testes of albino rats,Geobios, 1981; 8: 29-31.
71. Dixit VP, Sinha R & Gupta I, Inhibition of sperm production and sperm dynamicsin Abrus
precatorius treated males,The Indian Zoologist, 1987; 11(1-2): 115-18.
72. Kulshreshtha SS & Mathur RS. Effect of steroidal fraction of seeds of Abrus precatorius
Linn. on rat testis, Indian J Exp Biol, 1990; 28: 752-56.
73. Sinha R. Post-testicular antifertility effects of Abrus precatorius seed extract in albino rats, J
Ethnopharmacol, 1990; 28(2): 173-81.
74. Raji U & Bolarinwa AF. Antifertility activity of Quassia amara in male rats in vivo study,
Life Sci, 1997; 61(11): 1067-1074.
75. Ratnasooriya WD, Amarasekera AS, Perera NSD & Premakumara GAS. Sperm
antimotility properties of a seed extract of Abrus precatorius, J Ethnopharmacol,
1991;38:85-90.
76. Pakrashi A, Ray H, Pal BC & Mahato SB. Sperm immobilizing effect of triterpenesaponins
from Acacia auriculiformis, Contraception, 1991; 43: 475-83.
77. Banerji R & Nigam SK. Chemistry ofAcacia cocinna and A. caesia bark, J Indian Chem
Soc, 1980; 57: 1043-49.
78. Montanari T, Ernesto de Carvalho J & Dolder H. Antispermatogenic effect of Achillea
millefolium Linn. mice, Contraception, 1998; 58: 309-13.
79. Sandhyakumary K, Boby RG & Indira M. Impact of feeding ethanolic extracts of
Achyranthes aspera Linn. on reproductive functions in male rats, Indian J Exp Biol,
2002; 40: 1307-09.
80. Sharma A, Mathur A, Verma P, Joshi SC & Dixit VP. Effects of Actiniopteris dichotoma
(Sw.) on reproductive function of male rat, J Endocrinol Reprod, 1999; 3(1): 47-59.
81. Sur TK, Pandit S & Pramani KT. Antispermatogenic activity of leaves of Aegle
marmelos Corr. in albino rats: A Preliminary report, Biomedicine, 1999; 19: 199-202.
82. Sur TK, Pandit S, Pramanik T & Bhattacharyya D. Effect of Aegle marmelos leaf on
www.wjpps.com Vol 4, Issue 03, 2015.
266
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
rat sperm motility: an invitro study. Indian J Pharmacol, 2002; 34: 246-277.
83. Gupta RS, Kachhawa JB & Chaudhary R. Antifertility effects of methanolic pod extract of
Albizia lebbeck (L) Benth in male rats, Asian J Androl, 2004; 6(2): 155-159.
84. Gupta RS, Choudhary R, Yadav RK, Verma SK & Dobhal MP. Effect of Saponins of Albizia
lebbeck (Linn.) Benth. Bark on the reproductive system of male albino rats, J
Ethnopharmacol, 2005; 96(1-2): 31-36.
85. Dixit VP & Joshi S. Effects of chronic administration of garlic (Allium sativum Linn) on
testicular function, Indian J Exp Biol, 1982; 20: 534-36.
86. Dixit VP & Joshi S. Effect of Aloe barbadensis and Clofibrate in triton induced
hyperlipidaemic presbytis monkeys, Ind J Med Res, 1983; 78: 417-21.
87. Gupta RS, Sharma R, Sharma A, Bhatnagar AK, Dobhal MP, Joshi YC & Sharma MC. Effect
of Alstonia scholaris bark extract on testicular function of wistar rats, Asian J Androl, 2002;
4(3): 175-178.
88. Gupta RS, Bhatnagar AK, Joshi YC, Sharma R & Sharma A. Suppression of fertility in male
albino rats following α-amyrin acetate administration, Pharma Biol, 2004; 42(2): 98-
104.
89. Akbarsha MA, Manivannan B, Hamid KS & Vijayan B. Antifertility effect of
Andrographis paniculata (Nees) in male albino rats, Indian J Exp Biol, 1990; 28(5): 421-
26.
90. Akbarsha MA & Murugaian P. Aspects of male reproductive toxicity/male antifertility
property of andrographilode in albino rates. Effects on the testis and the cauda
epididymidal spermatozoa, Phytother Res, 2000; 14(6): 432-35.
91. Jain GC & Dixit VP. Effect of Annona squamosa ethanol extract and testicular function of
dogs (Canis indicus Linn.), II Annual Session of Science, 1982; pp. 22.
92. Gupta RS, Dobhal MP & Dixit VP. Morphometric and biochemical changes in testes
of Presbytis entellus entellus Dufresne (langur monkey) following aristolochic
acid administration, Ann Biol, 1996; 12(2): 328-334.
93. Mazaro R, Stasi LC & Kempinas WG. Effects of hydromethanolic extract of
Austroplenckia populnea (Celastraceae) on reproductive parameters of male rats,
Contraception, 2002; 66: 205-209.
94. Sharma JD, Jha RK, Gupta I & Jain P. Antiandrogenic properties of neem seed oil
Azadirachta indica in rat and rabbit, Ancient Sci life, 1987; 1: 30-38.
95. Sinha KC, Rair SS, Bardhan J, Thomas P, Jain AK & Jain RK. Anti-implantation effect of
neem oil, Indian J Med Res, 1984; 80: 708-710.
www.wjpps.com Vol 4, Issue 03, 2015.
267
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
96. Dixit VP, Bhargava SK & Gupta RA. Hyperglycemia induced testicular dysfunction
after chronic administration of Balanites roxburghii Planch fruit pulp extract in dog (Canis
indicus), Indian J Exp Biol, 1981; 19: 918-21.
97. Agarwal M & Dixit VP. Effect of Balanites roxburghii on male reproductive tract of
Langur Monkey, 52nd
Annual Session of National Academy Science, Allahabad, 1982;
pp56.
98. Gupta RS, Kumar P, Dixit VP & Dhobhal MP. Antifertility studies of root extract of
Barleria prionitis Linn. in male albino rats with special reference to testicular cell
population dynamics, J Ethnopharmacol, 2000; 70(2): 111-17.
99. Gupta RS & Dixit VP. Testicular cell population dynamics following palmitine hydroxide
treatment in male dogs, J Ethnopharmacol, 1989; 25: 151-57.
100. Serrano H & Garcia-Suarez MD. Sperm aggregation by water extracts from two Bursera
species, Arch Androl, 2001; 46: 15-20.
101. Wati BT & Verute AT. Butea monosperma leaf extract induced alterations in the
testicular function of albino rats: A histological and biochemical study, In: International
Symposium on Recent Advances in Male Reproduction, Hyderabad, 1988;12(14):16.
102. Gupta RS, Sharma N & Dixit VP. Calotropin, A novel compound for fertility control,
Ancient Sci Life, 1990; 9(4): 224-30.
103. Das RP. Effect of papaya seeds on the genital organs and fertility of male rats, Indian J Exp
Biol, 1980; 18: 408-09.
104. Chinoy NJ & Ranga G. Antiandrogenic and antifertility effects of Vinca rosea leaf extract,
Comp Physiol Ecol, 1983; 8: 41-52.
105. Bidwai PP, Wangoo D & Bhullar N. Antispermatogenic action of Celastrus paniculatus
seed extract in the rat with reversible change in the liver, J Ethnopharmacol, 1990; 28(3):
293-303.
106. Roychoudhary A & Venkatakrishna BH. Impairment of spermatogenesis by
Cichorium intybus plant extract, Naturwissenschaften, 1983;70:365-369.
107. Chaturvedi M & Dixit VP. Antifertility effect of Citrullus colocynthis Schrad. in male
albino rats, Indian J Environ Sci, 1997; 1(2): 89-92.
108. Gupta RS, Yadav RK, Dixit VP & Dobhal MP. Antifertility studies of Colebrookia
oppositifolia Smith leaf extract in male albino rats with special reference to testicular
cell population dynamics, Fitoterapia, 2001; 72: 236-245.
109. Chaturvedi M, Sharma S & Dixit VP. Effect of Convolvulus microphyllus Sieb. ex Spreng.
www.wjpps.com Vol 4, Issue 03, 2015.
268
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
on the testicular cell population dynamics, J Environ Pollut, 1995; 2(3): 143-146.
110. Vijaykumar B, Sangamma I, Sharanabassapa A, Patil A & Saraswati B.
Antispermatogenic and hormonal effects of Crotalaria juncea Linn. seed extract in male
mice, Asian J Androl, 2004; 6: 67-70.
111. Bhagat M & Purohit A. Kinetics of the testicular cell population following various Curcuma
longa rhizome extract administration in male albino rats, A morphometric approach,
In: National entellus), In: National Symposium on the Use of Primates in Biochemical
Research Jaipur, India, 1986; pp.53.
112. Sharma J, Sharma S & Jain R. Antifertility activity of Cuminum cyminum on reproductive
organs of male albino rats (Rattus norvegicus), In: National Symposium
Reproductive Biology and Comparative Endocrinology Vadodara, Gujarat, 2001;
pp.69.
113. Primorac M, Sekulovic D & Antonic S. In vitro determination of the spermicidal activity of
plant saponins, Pharmazie, 1985; 40:585-590.
114. Qian SZ, Zhong CQ & Xu Y. Effect of Tripterygium wilfordii Hook. f. on the fertility of
rats, Contraception, 1986; 33: 105-110.
115. Shah NV & Varute AJ. Effect of Daucus carrota seed extract on male reproductive organs of
albino rats (testis II), In: All India Symposium in Life Sciences, Nagpur, 1980;91:pp.217.
116. Pillai NR, Alam M & Purushothaman KK. Studies on antifertility activity of oleanolic
acid 3α-glucoside (RDG-D), J Res Indian Med Yoga Homeop, 1982; 12: 26-29.
117. Bandara BMR, Jayasinghe L & Karunaratne V. Ecdysterone from stem of Diploclisia
glaucescens, Phytochemistry, 1989; 28: 1073-75.
118. Delgado NM, Taboada RJ & Hernandez AO. Effects of a purified fraction from Echeveria
gibbiflora aqueous crude extract on guinea pig spermatozoa, Phytother Res,
1999;13:46-49.
119. Chaturvedi M, Mali PC & Dixit VP. Fertility regulation in male rats with the help of
Echinops echinatus Roxb root extract, J Phyto Res, 1995; 8(2): 115-118.
120. Dixit VP & Bhargava SK. Reversible contraception like activity of Embelin in male dogs
(Cannis indicus Linn.), Andrologia, 1983; 15(5): 486-494.
121. Mali PC. Antifertility activity of Euphorbia neriifolia Linn. root extract in male rats, Indian J
Environ Sci, 1999; 3(2): 85-190.
122. Farooq T, Vanitha Kumari G, Bhuvaneswari G & Malini T. Effects of anethole on accessory
sex tissue of albino rats, J Res Ayurv Siddha, 1997; 15: 161-170.
123. Dixit VP, Joshi S & Kumar A. Possible antispermatogenic activity of Gloriosa superba
www.wjpps.com Vol 4, Issue 03, 2015.
269
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
(EtOH-extract) in male gerbil (Meriones hurrianac Jerdon): A preliminary study, Comp
Physiol Ecol, 1983; 8: 17-22.
124. Coulson PB, Snell RL & Parise C. Short term metabolic effects of the antifertility agent,
gossypol on various reproductive organs of male mice, Int J Androl, 1980; 3: 507-518.
125. Pant G, Panwar MS, Rawat MSM & Negi DS. Spermicidal glycosides from Hedera
nepalensis K. Koch (inflorescence), Pharmazie, 1988; 43: 294-296.
126. Gupta I, Tank R & Dixit VP. Fertility regulation in males: Effect of Hibiscus rosa-sinensis
and Malvaviscus flower extract on male albino rats, Proc Nat Acad Sci India, 1985; 55(B):
262-267.
127. Saluja AJ & Santarin DD. Hormonal profile of Hyptis sauveolens (Linn.) Poit, Indian J
Pharm Sci, 1983; pp.97-99.
128. Ghoshal S, Srivastava AK, Srivastava SK, Chattopadhyay S & Mitra M.
Justicisaponin-I, a new triterpenoid from Justica simplex, Planta Med, 1981;42:279-283.
129. Gonzales GF, Ruiz A, Gonzales C, Villegas L & Cordova A. Effect of Lepidium meyenii
(maca) roots on spermatogenesis of male rats, Asian J androl, 2001; 3: 231-233
130. Verma OP, Joshi BC & Kumar S. Antifertility effects of Malvaviscus conzattii green
flower extract (Sc) on male albino mice, Indian J Exp Biol, 1980; 18: 561-564.
131. Mali PC, Ansari AS & Chaturvedi M. Antifertility effect of chronically
administered Martynia annua root extract on male rats, J Ethnopharmacol,
2002; 82: 61-67.
132. Sharma N & Jacob D. Antifertility efficacy of leaf extract of Mentha arvensis in the male
albino, J Adv Zool, 1996; 17: 71-73.
133. Purohit A & Dixit VP. Antispermatogenic efficacy of neem (Azadirachta indica A. Juss)
materials in male rats, Neem Newsletter, 1991; 8(2): 13-14.
134. Naseem MZ, Patil SR, Patil SR & Patil SB. Antispermatogenic and androgenic activities
of Momordica charantia (Karela) in albino rats, j Ethnopharmacol, 1998;61(1:9-16.
135. Watcho P, Kamtchouing P, Sokeng S, Moundipa PF, Tantchou J, Essame JL & Koueta N.
Reversible antispermatogenic and antifertility activities of Mondia whitei Linn. in
male albino rat, Phytother Res, 2001; 15(1): 26-29.
136. Udoh P & Ekpenyong J. Effect of Mucuna urens (horse eyes bean) on the gonads of
male guinea pigs, Phytother Res, 2001; 15(2): 99-102.
137. Misra DN & Shukla GD. Vitafix in premature ejaculation A controlled trial, Indian Pract,
1980; 33: 81-86.
138. Londonkar RL, Srinivasreddy P, Somanathreddy P & Patil SB. Nicotine induced
www.wjpps.com Vol 4, Issue 03, 2015.
270
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
inhibition of activities of accessory reproductive ducts in male rats, J Ethnopharmacol,
1998; 60(30): 215-221.
139. Dhawan BN, Dubey MP, Mehrotra BN, Rastogi RP & Tandon JS. Screening of Indian
plants for biological activity: Part-IX, Indian J Exp Biol, 1980; 18: 594-602.
140. Seth SD, Johri N & Sundaram KR. Antispermatogenic effect of Ocimum sanctum,
Indian J Exp Biol, 1981; 19: 975-976.
141. Singh SP. Male contraception through an indigenous plant Ocimum sanctum Linn, Int J
Androl, 1997; 20: 14-18.
142. Rawat MSM, Negi DS, Pant G & Panwar MS. Spermicidal potential and chemical analysis
of Ophiopogon intermedius (rhizomes), Pharmazie, 1988; 43(2): 143-144.
143. Adhikary P, Choudhary D, Anup KR & Das CC. Antifertility effect of Piper betle Linn.
extract on ovary and testis of albino rat, Indian J Exp Biol, 1989; 27: 868-870.
144. Sarkar M, Gangopadhyay P, Basak B, Chakrabarty K, Banerji J, Adhikary P & Chatterjee
A. The reversible antifertility effect of Piper betle Linn. on Swiss albino male mice,
Contraception, 2000; 62: 271-274.
145. Malini T, Manimoran RR, Arunakaran J, Aruldhas MM & Govindarajulu P. Effects of
piperine on testis of albino rats, J Ethnopharmacol, 1999; 64(3): 219-225.
146. Jain GK, Pal R & Khanna NM. Spermicidal saponin from Pittosporum nighirense
Wight et al Apriott, Indian J Pharm Sci, 1980; 42: 12-13.
147. Bhargava SK. Effects of Plumbagin on reproductive function of male dog, Indian J
Exp Biol, 1984; 22: 153-156.
148. Vyas DK & Jacob D. Effect of oral administration of Champa (Plumeria alba) leaves on
implantation, male fertility and male reproductive system of the rabbit, Exp Clin Endocrinol
Life Sci Adv, 1986; 5: 121-123.
149. Verma OP, Kumar S & Chatterjee SN. Antifertility effect of common edible Portulaca
olearacea on reproductive organs of male rats, Indian J Med Res, 1982; 75: 301-310.
150. Gupta RS, Sharma R, Sharma A, Choudhary R, Bhatnagar AK & Joshi YC.
Antifertility effects of Pueraria tuberosa oot extract in male rats, Pharm Biol, 2004; 42(8):
603-609.
151. Njar VC, Alao TO, Okogun JI, Raji Y, Bolarinwa AF & Nduka EU. Antifertility activity
of Quassia amara: quassin inhibits the steroidogenesis in rat Leydig cells in vitro, Planta
Med, 1995; 61(2): 180-182.
152. Rajasekaran M, Bapna JS, Lakshmanan S, Nair AGR, Veliath AJ & Panchanadam M.
Antifertility effect in male rats of oleanolic acid, a triterpene from Eugenia
www.wjpps.com Vol 4, Issue 03, 2015.
271
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
jambolana flowers, J Ethnopharmacol, 1988; 24: 115-121.
153. Sandhyakumary K, Bobby RG & Indira M. Antifertility effects of Ricinus communis
Linn. on rats, Phytother Res, 2003; 17(5): 508-511.
154. Sharma BB, Gupta DN, Vaishney MD & Prakash AO. Rubus ellipticus- A potential
antifertility plant, Indian Vet Med J, 1981;5:125-128.
155. Elbetieha A, Al-Hamood MH, Alkofahi A & Bataineh H. Reproductive toxicity
potentials of Salvia fruticosa (Labiatae) in rats, J Ethnopharmacol, 1998; 61(1): 67-74.
156. Nivasarkar M, Shrivastava N, Patel M, Padh H & Bapu C. Sperm membrane modulation
by Sapindus mukorossi during sperm maturation, Asian JAndrol, 2002; 4: 233-235.
157. Verma PK, Sharma A, Mathur A, Sharma P, Gupta RS, Joshi SC & Dixit VP. Effect of
Sarcostemma acidum stem extract on spermatogenesis in male albino rats, Asian J
Androl, 2002; 4(1): 43-47.
158. Singh SP. Regulation of fertility in male through an indigenous plant Semecarpus
anacardium Linn., J Res Edu Indian Med, 1985; 4(384): 9-20.
159. Malini T, Venkatesh NS, Govindarajulu P & Aruldhas MM. Solasodine: a plant alkaloid
impairs LH binding in Leydig cells of adult albino rats, In: National Symposium of the
Society for Reproductive Biology and Comparative Endocrinology, Vadodara, Gujrat,
2001; pp.83.
160. Ghosh D, Jana D & Debnath JM. Effects of leaf extract of Stephania hernandifolia on
testicular gametogenesis and androgenesis in albino rats: a dose dependent response study,
Contraception, 2002; 65: 379-384.
161. Melis MS. Effects of chronic administration of Stevia rebaudiana on fertility in rats, J
Ethnopharmacol, 1999; 167: 157-161.
162. Hiremath SP, Badami S, Swamy HKS, Patil SB & Lonodonkar RL. Antiandrogenic effect
of Striga orobanchoides, J Ethnopharmacol, 1997; 56(1): 55-60.
163. Sinha R, Gupta I, Tark R & Dixit VP. Antispermatogenic activity of Abrus precatorius
Linn. seed extract in Langur Monkey (Presbytis entellus) In: national
symposium on the use of Primates in Biochemical research Jaipur, India, 1986;
pp56.
164. Jha RK & Dixit VP. Inhibition of spermatogenesis after chronic administration of
Terminelia arjuna and Sapindus trifoliatus (50% EtOH extract) in male albino rats, Proc
Nat Acad Sci, 1986; 56(3): 94-99.
165. Gupta RS & Sharma A. Antifertility effect of Tinospora cordifolia Willd. Stem extract in
male rats, Indian J Exp Biol, 2003; 41: 885-889.
www.wjpps.com Vol 4, Issue 03, 2015.
272
Azamthulla et al. World Journal of Pharmacy and Pharmaceutical Sciences
166. Kamal R, Yadav R & Sharma JD. Efficacy of the steroidal fraction of Fenugreek
seed extract on fertility of male albino rats, Phytother Res, 1993; 7(2): 134-138.
167. Kamal R, Sharma JD & Mathur L. Contraceptive efficacy of steroidal extract of
Fenugreek on male albino rats: EM, withdrawal symptoms and bioassay, In: The 41st
Annual Meeting of the American Society of Pharmacognosy, 2000; 22(26): pp.1-16.
168. Qian SZ, Hu YZ & Wang SM. Effect of Tripterygium hypoglaucum Hutch on male
fertility, Adv Contraception, 1988; 4: 307-310.
169. Qian SZ, Xu Y & Wei ZJ. Recent progress in research on Tripterygium: A male antifertility
plant, Contraception, 1995; 51: 121-129.
170. Dikshith TSS, Raizada RB & Mulchandani NB. Toxicity of pure alkaloid of Tylophora
asthmatica in male rats, Indian J Exp Biol, 1990; 28(3): 208-212.