FINAL REPORT STUDY TITLE. EVALUATION OF APHRODISIAC ACTIVITY OF VigRx IN MALE ALBINO WISTAR RATS. Report No.: R401.

Similar documents
Final Report. Acute oral toxicity study in Wistar rats. Mr. S. Haribabu, B Tech (Biotech), MSc

SHRIRAM INSTITUTE FOR INDUSTRIAL RESEARCH. ACUTE ORAL TOXICITY STUDY IN RATS WITH Cry 1 C a 1 PROTEIN

Final Report. Acute dermal toxicity study in Wistar rats. Mr. M. Vasanthan, M Tech (Biotech)

SHRIRAM INSTITUTE FOR INDUSTRIAL RESEARCH

GUIDELINES: This is an investigative study with no applicable guidelines.

AN ACUTE ORAL TOXICITY STUDY IN RATS WITH ADVANTRA Z

International Journal of Pharmaceutical and Medicinal Research

MB Research Laboratories

Kaylan M. Schulz, Heather N. Richardson, Julia L. Zehr, Andrew J. Osetek, Tami A. Menard, and Cheryl L. Sisk. By: James Aliamus

Assessment of a Polyherbal Ayurvedic Medicine for Sexual Activity in Rats

Acute Oral Toxicity Study in Rats with Argentyn 23 (EPA/OECD Guidelines) Study Title. Monica M. Vegarra, BS. Sponsor

INFLUENCE OF NEONATAL CASTRATION OR NEONATAL ANTI-GONADOTROPIN TREATMENT ON FERTILITY, PHALLUS DEVELOPMENT, AND MALE SEXUAL BEHAVIOR IN THE MOUSE*

Acute Toxicity Profiling of Siddha Drug Oma Kudineer in Wistar Rats

Acute Oral Toxicity Study on

Sulfamethoxazole/Trimethoprim 400mg/80mg Tablets (Micro Labs Ltd), HA598. WHOPAR part 5 July 2017 LABELLING

INDUCTION OF OVULATION IN URETHANE-TREATED RATS

PRODUCT STUDY TITLE DATA REQUIREMENT AUTHOR STUDY COMPLETED ON PERFORMING LABORATORY LABORATORY STUDY NUMBER

Page 1132

Acommon consequence of the clinical use of

Delayed Matching-To-Sample Test in Macaques

Acute Oral Toxicity Study on

Ingredient Listing Qty. Unit NDC # Supplier ml

Acute and subacute oral toxicity study of Rasa chenduram

Hypoglycemic Activity of Seerankottai Thiravam (Semicarpus Anacardium. Linn) in Alloxan Induced Diabetic Rats

Scholars Research Library

SCIFED. Publishers. SciFed Journal of Public Health. Comparing Modified and Relationship Study of Gymnema Sylvestre Against Diabetes

International Journal of Medicine and Health Profession Research

SUGGESTED FORMULATION. Lot Number. Expiry Date. Ingredient Listing Qty. Unit NDC # Supplier

Pharmacological and toxicological evaluation of herbal extracts in rat model of erectile dysfunction

March Aphrodisiac activity of Cordia dichotoma forst.f. fruits

S Nirmala et al. IRJP 2 (3)

The beginning of puberty is marked by the progressive increase in the production of sex hormones.

ACUTE AND SUB ACUTE TOXICITY STUDIES OF HERBO- METALLIC FORMULATION VANGA CHENDURAM

Testicular Toxicity: Evaluation During Drug Development Guidance for Industry

Evaluation of Anti-Hyperlipidemic Activity of Ammomum subulatum Seeds Extracts

Animal Products Notice

Antipyretic Effect of Crude Methanolic Extract of Mitragyna speciosa in Mice

C.16. HONEYBEES - AC UTE ORAL TOXICITY TEST. This acute toxicity test method is a replicate of the OECD TG 213 (1998).

Why Reproduce? In order to ensure the continuation of the species and the continuation of life in general by producing offspring

Ingredient Listing Qty. Unit NDC # Supplier. q.s. to ml

Abstract. Introduction

*Corresponding author: ABSTRACT

Evaluation of Aphrodisiac Activity of Buchanania axillaris (Linn.) Leaves

Evaluation of aphrodisiac activity of tamilnadia ulignosa (retz.) bark

Fertility and early embryonic development. Chris Willoughby, Huntingdon Life Sciences 11 October 2012

TITLE: Targeted Eradication of Prostate Cancer Mediated by Engineered Mesenchymal Stem Cells

One of the most reliable phenomena in neuroendocrinology

SCIENTIFIC DISCUSSION

Research Article Anti hyperlipidemic Activity of Costus Igneus in Triton X- 100 Induced Hyperlipidemic Rats

Synergistic Anti-Depression Activity Evaluation of Different Composition of Volatile Oil of Eucalyptus and Neem Oil by Tail Suspension Model

Pharmacologyonline 1: (2010) ANTI-HYPERLIPIDEMIC ACTIVITY OF A POLY HERBAL FORMULATION IN EXPERIMENTAL MODELS

CONTACT WITH ESTRUS FEMALE AS A REWARD FOR IKSTRUMENTAL RESPONSE IN A GROWING MALE RAT FROX'I THE 3RD UP TO THE 14TK WEEK OF LIFE

Aphrodisiac Properties of Mutimba Vula and Mwana Apeluke Herbs sold in Lusaka, Zambia

Chapter 5 Herb-Drug Interactions: Glibenclamide

European Medicines Agency decision

RESEARCH ARTICLE. Received on: 08/02/2017 Published on:27/03/2017

STANDARD FOR PORCINE SEMEN QUALITY IN AI CENTRES

APPLICABILITY/ACCOUNTABILITY: This policy applies to all persons and activities on campus. POLICY STATEMENT:

247 CMR BOARD OF REGISTRATION IN PHARMACY

Table 1. Oligonucleotides and RT-PCR conditions Supplementary Material and Methods Fig. 1

Biochemical alterations induced by the acute exposure to combination of chlorpyrifos and lead in Wistar rats

Why Reproduce? In order to ensure the continuation of the species and the continuation of life in general by producing offspring

Seaforia Sperm Separation System. Product Catalog

androgen on the seminal vesicles it had neither a blocking effect on the penile

Screening for Aphrodisiac Property in Local Oyster of Crassostrea iredalei

COMMITTEE FOR VETERINARY MEDICINAL PRODUCTS

International Journal of Pharma and Bio Sciences EFFECT OF COW URINE ON LIVER MICROSOMAL ENZYMES IN RATS ABSTRACT

In-Vitro Bioequivalence Studies for Oral Solid Dose products using the Morphologi G3-ID

The Use of Sea Buckthorn (Hippophae rhamnoides) and Milk Thistle (Silybum marianum) in Alloxan Induced Diabetes Mellitus in Rats

A. K. EYONG AND V. B. BRAIDE

FINAL REPORT: MARINE MAGNESIUM TRIAL. Presented by Christian Cruywagen Department of Animal Sciences Stellenbosch University South Africa

GUIDANCE DOCUMENT Non-prescription Oral Adult Nasal Decongestant Labelling Standard

Chapter 22 The Reproductive System (I)

Revised August 28, 2018

Draft Indian Standard WHEAT BRAN AS LIVESTOCK FEED SPECIFICATION (Second Revision of IS 2239)

Antiobesity effect of Lipovedic formulation in rats fed on atherogenic diet

Division of Research University Policy

Food Fortification Regulations, 2016 (Gazetted on 24 October, 2016) ARRANGEMENT OF SECTIONS PART I PRELIMINARY

Online at JPBR, 2014, Vol.2(1): 63-68

FINAL REPORT. Study No.: June 29, <Translation from Japanese original into English>

How To Spike Semen Volume By 61.4% 1

Artesunate 120mg powder for injection (Guilin Pharmaceutical Co., Ltd), MA90 LABELLING. Page 1 of 6

A Comparative Study on Aphrodisiac Activity of Some Ayurvedic Herbs in Male Albino Rats

Acute and Chronic Dosing of Lepidium meyenii (Maca) on Male Rat Sexual Behavior

C.17. HONEYBEES - AC UTE CONTACT TOXICITY TEST. This acute toxicity test method is a replicate of the OECD TG 214 (1998).

Ingredient Listing Qty. Unit NDC # Supplier. Sterile Preparation

Asian Journal of Biomedical and Pharmaceutical Sciences 1 (3) 2011, 26-31

Cognitive Dysfunction in Diabetic Rats. Effect of Minocycline

MC IRB Protocol No.:

GSC CODEX MESSAGE CCFA48/2016/25

KENYA STANDARD DKS Moringa leaf products Specification

Effect of Some Vajikaran Herbs on Pendiculation Activities and In vitro Sperm Count in Male

Evaluation of Haematinic Activity of the Siddha Drug Pitha Paandu Maathirai on Phenyl Hydrazine Induced Anaemic Rats

Non-destructive testing Penetrant testing. Part 2: Testing of penetrant materials

INTERNATIONAL JOURNAL OF PHYTOTHERAPY RESEARCH ISSN Research article

Pelagia Research Library

040716_ANDI_VENTIS WEBSITE(new) Printout 1. HOME PAGE. Welcome to our world of Dry Powder Inhalers!

Journal of Chemical and Pharmaceutical Research

Transcription:

FINAL REPORT STUDY TITLE EVALUATION OF APHRODISIAC ACTIVITY OF IN MALE ALBINO WISTAR RATS STUDY DIRECTOR Dr. Amit A, Ph.D. SPONSOR AIBMR Life Sciences, Inc. 4117, South Meridian, Puyallup, WA 98373

CONTENTS PAGE NO. Preface 4 General 4 Objectives 5 Materials and methods 6 Test substance 6 Preparation of dose 7 Justification for selection of doses 8 Test system 9 Randomization of animals 10 Drugs/chemicals used 11 Induction of estrus in female rats 12 Selection of male rats 13 Experimental design 14 Observations 15 Behavioral signs 15 Testosterone 15 Histopathology 15 Statistics 16 Results 17 Mount latency 17 Mount frequency 17 Intromission latency 17 Intromission frequency 18 Ejaculation latency 18 Ejaculation frequency 18 Post ejaculatory interval 19 Testosterone 19 Histopathology 19 Conclusion 20 Key personnel 21 Disclaimer 22-2 -

CONTENTS PAGE NO. Tables 1. Effect of on mount latency in male albino Wistar rats 23 2. Effect of on mount frequency in male albino Wistar rats 24 3. Effect of on intromission latency in male albino Wistar rats 25 4. Effect of on intromission frequency in male albino Wistar rats 26 5. Effect of on ejaculation latency in male albino Wistar rats 27 6. Effect of on ejaculation frequency in male albino Wistar rats 28 7. Effect of on post ejaculatory interval in male albino Wistar rats 29 8. Effect of on testosterone level in male albino Wistar rats 30 9. Effect of on number of spermatogonia in male albino Wistar rats 31 Appendices I. Protocol II. Certificate of Analysis - 3 -

PREFACE General Study title : Evaluation of aphrodisiac activity of in male albino Wistar rats Sponsor : AIBMR Life Sciences, Inc., 4117, South Meridian, Puyallup, WA 98373 Testing facility : Natural Remedies Research and Development Centre, Plot No. 5B, Veerasandra Indl. Area, 19 th K M Stone, Hosur Road, Bangalore 560 100. Report No. : R401.07-4 -

OBJECTIVES The purpose of this study is to evaluate the aphrodisiac activity of in male albino Wistar rats. The results of this study will provide preliminary information about the efficacy of to be used as an aphrodisiac agent. - 5 -

MATERIALS AND METHODS Test substance Sponsor : AIBMR Life Sciences, Inc., 4117, South Meridian, Puyallup, WA 98373 Label on substance : Tablet Blend Lot No. : 120657 Characteristics of sample : Consistency - Solid (powder) Colour - Brown - 6 -

Preparation of dose Dose : 225, 335 and 450 mg/kg body weight. Dose volume : 10 ml/kg. Vehicle : Demineralised water. Procedure : The test substance was taken in demineralised water to obtain 22.5, 33.5 and 45.0 mg/ml strength. The test substance was administered in the dose volume of 10 ml/kg body weight for 14 days. The formulation was prepared fresh on each day of dosing. - 7 -

Justification for selection of doses The rat doses were selected based on the information provided by the sponsor and as agreed in the protocol. Tablet weight - 1200 mg as per COA SF 2226 (12/06) No. of tablets per day Total human dose mg/human/day Rat dose mg/kg rat b.w Approximated Rat dose mg/kg rat b.w 2 2400 216 225 (Low dose) 3 3600 324 335 (Mid dose) 4 4800 432 450 (High dose) - 8 -

Test system Species : Albino rats. Strain : Wistar. Source : Central Animal Facility, R&D centre, Natural Remedies Pvt. Ltd. Sex : Male and Female. Body weight range : 200 to 250 g. No. of animals per dose : Eight male rats. Acclimation : One month in reversed light dark cycle (light from 21.00 h to 9.00 h). Veterinary examination : Before allocation of animals to individual groups. Identification of animals : By cage card number. Diet : Pelleted feed ad libitum supplied by Gold Mohur Foods & Feeds Ltd., Bangalore. Water : U.V. purified water ad libitum. Housing and environment : One animal per polypropylene cage provided with bedding of husk. The temperature was maintained between 25 2 C and relative humidity between 30% and 70% with optimal air changes per hour and reversed light dark cycle (light from 21.00 h to 9.00 h) was maintained. - 9 -

Randomization of animals Healthy adult male rats, acclimatized to reversed light dark cycle for one month prior to dosing, were used in this study. Animals were randomly assigned to the cages. - 10 -

Drugs/chemicals used Testosterone enanthate (Source: German Remedies; Batch No.: GG1054; Mfd: 01/07; Exp: 12/09; Trade Name: Testoviron; Qty: 250 mg) was used at the dose of 15 mg/kg rat body weight. Estradiol valerate (Source: German Remedies; Batch No.: HFF287; Mfd: 01/07; Exp: 12/09; Trade Name: Progynova; Qty: 2 mg) was used at the dose of 10 µg/kg rat body weight. Progesterone (Source: Ferring Pharmaceuticals; Batch No.: FO2511K; Mfd: 12/05; Exp: 07/08; Trade Name: Gestone; Qty: 100 mg) was used at the dose of 500 µg/kg rat body weight. - 11 -

INDUCTION OF ESTRUS IN FEMALE RATS The female rats were brought to estrus by sequential administration of estradiol valerate (10 µg/kg rat body weight) and progesterone (500 µg/kg rat body weight), through subcutaneous injections, 48 h and 4 h before the copulatory studies respectively. - 12 -

SELECTION OF MALE RATS Male rats were trained for sexual behavior with primed female rats in estrus individually for 15 min in a mating arena (60 x 30 x 18 cm) for a period of 10 days prior to the start of experiment. Then, the trained animals were screened for selecting the active males. Only those males that attempted to mount the female more than 5 times in 5 min were considered sexually active and were selected for the study. - 13 -

EXPERIMENTAL DESIGN Eight sexually active males were randomly allotted to each group. Group I served as vehicle control (Demineralized water; 10 ml/kg; p.o). Group II was administered with testosterone enanthate subcutaneously at the dose of 15 mg/kg. Groups III, IV and V were administered orally with at the doses of 225, 335 and 450 mg/kg rat body weight respectively. Study design: Groups Treatment Dose (rat b.w.) I Vehicle control 10 ml/kg II Testosterone 15 mg/kg III 225 mg/kg IV 335 mg/kg V 450 mg/kg - 14 -

OBSERVATIONS Behavioral signs The sexual behavior was observed after 1 h of treatment in a four quadrant mating arena under dim red illumination. The experimental animal (male rat) was placed in the mating arena 10 min before the observation period for acclimation. The receptivity of the female rat was confirmed before the behavior test by exposing them to male rats other than the experimental animals. The receptive female rat was introduced to the male rat in the mating arena in 1:1 ratio. The rats were then observed for 30 min for copulatory behaviors such as mounting, intromission and ejaculation on 0 th, 1 st, 7 th and 14 th day of treatment and the parameters such as mount latency, mount frequency, intromission latency, intromission frequency, ejaculation latency, ejaculation frequency and post ejaculatory interval were recorded. The observers were blinded about the treatment to avoid any bias. Testosterone After 14 days of treatment, animals were kept for overnight fasting and blood was collected (on 15 th day) through retro-orbital sinus and serum was separated for testosterone estimation. Histopathology Testes, epididymides and seminal vesicles were collected for histopathological evaluation. - 15 -

STATISTICS The data were analyzed using one way ANOVA followed by Bonferroni method as post-hoc test. In case of heterogeneous data after transformation dunnetts s T3 method was used. All values were reported as mean SEM. Statistical significance was set at p 0.05. - 16 -

RESULTS Mount latency (Table 1) The mean mount latency on different days is presented in Table 1. No significant difference in mount latency between different groups was observed in basal value when compared to vehicle control. No significant difference in mount latency was observed on day 1 when compared to vehicle control. Significant decrease in mount latency was observed in testosterone treated group on day 7 and 14 as compared to vehicle control. treated groups showed a non significant decrease in mount latency on day 1, 7 and 14 with a significant decrease observed on day 14 at the dose of 450 mg/kg as compared to vehicle control. Mount frequency (Table 2) The mean values of mount frequency on different days are presented in Table 2. No significant difference in mount frequency between different groups was observed in basal value as compared to vehicle control. The testosterone and treated groups did not show any significant difference in mount frequency on day 1, 7 and 14 when compared to vehicle control. Intromission latency (Table 3) The mean intromission latency on different days is presented in Table 3. No significant difference in intromission latency between different groups was observed in basal value when compared to vehicle control. Significant decrease in intromission latency was observed in testosterone treated group on day 1, 7 and 14 when compared to vehicle control. A significant reduction in intromission latency was observed on day 7 and 14 in high dose group. - 17 -

Intromission frequency (Table 4) The mean values of intromission frequency on different days are presented in Table 4. No significant difference in intromission frequency between different groups was observed in basal value when compared to vehicle control. The intromission frequency observed in treated group on day 1, 7 and 14 did not show any significant difference when compared to vehicle control. Ejaculation latency (Table 5) The mean ejaculation latency on different days is presented in Table 5. No significant difference in ejaculation latency between different groups was observed in basal value and on day 1 when compared to vehicle control. A significant decrease in ejaculation latency was observed in testosterone treated group on day 7 and 14 when compared to vehicle control. The treatment at the doses of 225, 335 and 450 mg/kg on day 14 showed significant decrease in ejaculation latency when compared to vehicle control. Ejaculation frequency (Table 6) The mean values of ejaculation frequency on different days are presented in Table 6. No significant difference in ejaculation frequency was observed in basal value between different groups when compared to vehicle control. The treatment groups did not show any significant difference in ejaculation frequency on day 1 when compared to vehicle control. A significant increase in ejaculation frequency was observed in testosterone treated group on day 14 when compared to vehicle control. treated group at the dose of 450 mg/kg on day 7 showed a - 18 -

significant increase in ejaculation frequency with a non significant increase on day 14 as compared to vehicle control. - 19 -

Post ejaculatory interval (Table 7) The mean values of post ejaculatory interval on different days are presented in Table 7. No significant difference in post ejaculatory interval between different groups was observed in basal value when compared to vehicle control. No significant difference in post ejaculatory interval in treated groups was observed on day 1 and 7 when compared to vehicle control. A significant decrease in post ejaculatory interval was observed in testosterone treated group and treatment at all the doses on day 14 when compared to vehicle control. Testosterone (Table 8) The mean values of testosterone concentration are presented in Table 8. A significant increase in serum testosterone concentration was observed in testosterone treated group when compared to vehicle control. at the doses of 335 and 450 mg/kg showed a marginal increase in testosterone concentration as compared to vehicle control. Histopathology The mean number of spermatogonia cells on histopathological examination in five seminiferous tubules of the testes is presented in Table 9. An increase in the number of spermatogonia cells was observed in treated groups when compared to vehicle control, but was not found to be statistically significant. The histopathological examination of epididymides and seminal vesicles did not reveal any significant changes between the normal and treated groups. - 20 -

CONCLUSION Based on the observations from the present study, exhibited aphrodisiac activity by significantly reducing the ejaculation latency and post ejaculatory interval at all the tested doses on day 14 and by significantly reducing the mount latency (on day 14) and intromission latency (on day 7 and 14) at 450 mg/kg when compared to vehicle control. Treatment with at the dose of 450 mg/kg showed a significant increase in ejaculation frequency on day 7 and a non significant increase on day 14 with marginal increase in testosterone concentration in serum and number of spermatogonia cells in seminiferous tubules of testes. - 21 -

KEY PERSONNEL CO-INVESTIGATORS: Dr. Damodaran A Dr. Krishna Goudar Dr. Natarajan B Mr. Wasim Pathan Ms. Sameera Nareddi PRINCIPAL INVESTIGATOR: Dr. Joshua Allan J STUDY DIRECTOR: Dr. Amit A SPONSOR S REPRESENTATIVE: Dr. Alexander Schauss - 22 -

DISCLAIMER 1.The results listed above pertain only to the tested samples and applicable parameters. 2.Samples will be disposed after one month from the date of issue of test report unless otherwise specified. 3.This report is not to be reproduced either wholly or in part and cannot be used as an evidence in the court of law and should not be used in any advertising media without prior written permission. - 23 -

TABLE 1 Effect of on mount latency in male albino Wistar rats Treatment group Basal value Day 1 Day 7 Day 14 I Vehicle control (10 ml/kg) II Testosterone (15 mg/kg) III (225 mg/kg) IV (335 mg/kg) 20.75 2.59 22.38 2.20 28.50 4.85 26.75 5.53 21.50 3.57 17.38 2.25 4.88 0.61* 4.38 0.84* 24.13 4.15 18.50 2.69 20.88 3.63 16.50 3.67 24.13 2.52 20.13 1.85 23.38 3.41 18.38 2.76 V (450 mg/kg) 23.88 3.46 19.00 2.09 15.38 2.92 9.75 1.21* Values are expressed as mean ± SEM; n=8; Unit Seconds. *p < 0.05 Testosterone / Vs Vehicle control. - 24 -

TABLE 2 Effect of on mount frequency in male albino Wistar rats Treatment group Basal value Day 1 Day 7 Day 14 I Vehicle control (10 ml/kg) II Testosterone (15 mg/kg) III (225 mg/kg) IV (335 mg/kg) 34.00 2.99 33.25 4.62 35.00 4.12 31.50 3.55 36.88 2.69 36.38 3.17 20.38 1.81 30.00 3.54 38.75 4.87 31.13 3.94 37.38 4.40 33.25 3.76 34.88 4.27 32.13 4.54 42.25 5.17 32.63 3.40 V (450 mg/kg) 28.25 3.21 26.88 3.50 31.88 3.34 28.88 3.28 Values are expressed as mean ± SEM; n=8; Unit Numbers. - 25 -

TABLE 3 Effect of on intromission latency in male albino Wistar rats Treatment group Basal value Day 1 Day 7 Day 14 I Vehicle control (10 ml/kg) 51.88 6.90 39.88 3.11 58.00 5.32 54.13 7.07 II Testosterone (15 mg/kg) 47.13 5.86 22.13 3.12* 14.75 2.19* 11.50 1.95* III (225 mg/kg) IV (335 mg/kg) 47.63 6.61 31.50 3.72 58.50 6.41 54.50 7.08 51.13 7.37 39.25 5.41 47.38 6.29 35.25 4.78 V (450 mg/kg) 49.38 6.08 32.75 3.73 35.25 4.13* 23.50 3.83* Values are expressed as mean ± SEM; n=8; Unit Seconds. *p < 0.05 Testosterone / Vs Vehicle control. - 26 -

TABLE 4 Effect of on intromission frequency in male albino Wistar rats Treatment group Basal value Day 1 Day 7 Day 14 I Vehicle control (10 ml/kg) II Testosterone (15 mg/kg) III (225 mg/kg) IV (335 mg/kg) 28.00 2.75 30.50 2.71 25.88 3.71 27.75 3.07 35.88 3.14 27.50 3.63 32.75 2.04 27.25 3.60 30.25 3.46 32.13 3.44 32.25 3.56 27.25 3.10 26.75 1.69 29.75 2.20 25.75 3.27 25.63 1.75 V (450 mg/kg) 33.63 1.63 32.13 3.26 31.88 2.32 29.25 1.74 Values are expressed as mean ± SEM; n=8; Unit Numbers. - 27 -

TABLE 5 Effect of on ejaculation latency in male albino Wistar rats Treatment group Basal value Day 1 Day 7 Day 14 I Vehicle control (10 ml/kg) 537.50 26.31 664.25 61.60 650.63 77.28 674.00 30.49 II Testosterone (15 mg/kg) 477.50 35.59 446.38 52.29 205.13 41.67* 178.50 22.68* III (225 mg/kg) 464.25 48.53 433.13 43.61 426.63 66.69 378.75 44.01* IV (335 mg/kg) 502.75 53.43 507.88 60.25 516.75 52.31 424.13 34.47* V (450 mg/kg) 548.63 59.00 675.75 69.66 435.13 48.01 375.50 35.85* Values are expressed as mean ± SEM; n=8; Unit Seconds. *p < 0.05 Testosterone / Vs Vehicle control. - 28 -

TABLE 6 Effect of on ejaculation frequency in male albino Wistar rats Treatment group Basal value Day 1 Day 7 Day 14 I Vehicle control (10 ml/kg) II Testosterone (15 mg/kg) III (225 mg/kg) IV (335 mg/kg) 2.50 0.19 1.75 0.31 2.50 0.19 2.25 0.37 2.50 0.19 2.75 0.25 3.13 0.23 3.88 0.23* 2.63 0.26 2.38 0.38 2.75 0.45 3.00 0.38 2.50 0.33 2.38 0.32 2.75 0.25 3.13 0.30 V (450 mg/kg) 2.50 0.33 2.38 0.32 3.38 0.18* 3.25 0.25 Values are expressed as mean ± SEM; n=8; Unit Numbers. *p < 0.05 Testosterone / Vs Vehicle control. - 29 -

TABLE 7 Effect of on post ejaculatory interval in male albino Wistar rats Treatment group Basal value Day 1 Day 7 Day 14 I Vehicle control (10 ml/kg) 348.75 21.87 431.50 27.91 373.50 17.60 423.75 17.28 II Testosterone (15 mg/kg) 383.25 24.55 382.25 29.40 356.25 10.68 316.25 9.34* III (225 mg/kg) 310.88 21.17 385.75 28.42 391.50 20.08 355.25 12.35* IV (335 mg/kg) 355.50 21.10 354.13 16.35 339.88 21.44 347.75 16.68* V (450 mg/kg) 349.13 30.31 346.50 18.31 341.88 19.20 353.25 19.21* Values are expressed as mean ± SEM; n=8; Unit Seconds. *p < 0.05 Testosterone / Vs Vehicle control. - 30 -

TABLE 8 Effect of on testosterone level in male albino Wistar rats Treatment group I Vehicle control (10 ml/kg) II Testosterone (15 mg/kg) III (225 mg/kg) IV (335 mg/kg) V (450 mg/kg) Values are expressed as mean ± SEM; n=8. *p < 0.05 Testosterone / Vs Vehicle control. Testosterone (ng/ml) 3.54 0.96 23.00 1.83* 2.45 0.31 4.66 0.89 5.93 1.61-31 -

TABLE 9 Effect of on number of spermatogonia in male albino Wistar rats Treatment group I Vehicle control (10 ml/kg) II Testosterone (15 mg/kg) III (225 mg/kg) IV (335 mg/kg) V (450 mg/kg) Values are expressed as mean ± SEM; n=8. Number of spermatogonia 356.00 9.42 415.13 28.21 368.50 15.70 376.13 25.29 406.00 30.38-32 -