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Prof. Yasmeen Iqbal, Ph.D Prof. Darlene A. Kluka, Ph.D Coordinator

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ISSN 1991-8410<br />

Volume 05, 2010<br />

Editors:<br />

<strong>Prof</strong>. <strong>Yasmeen</strong> <strong>Iqbal</strong>, <strong>Ph</strong>.D<br />

<strong>Prof</strong>. <strong>Darlene</strong> A. <strong>Kluka</strong>, <strong>Ph</strong>.D<br />

<strong>Coordinator</strong>:<br />

<strong>Prof</strong>. <strong>Iqbal</strong> Ahmed Qureshi<br />

A Publication of the<br />

Centre for <strong>Ph</strong>ysical Education & Sports Science<br />

University of Sindh, Jamshoro<br />

Sindh-Pakistan


About Journal (The Shield) ISSN 1991-8410<br />

The HEC recognized Research Journal on <strong>Ph</strong>ysical Education & Sport Sciences<br />

entitled The Shield is published annually by the Centre for <strong>Ph</strong>ysical Education & Sport<br />

Sciences, functioning in the Faculty of Natural Sciences, University of Sindh, Jamshoro,<br />

Pakistan.<br />

The major objective of bringing out this journal is to provide a forum for the<br />

scholars engaged in the study of <strong>Ph</strong>ysical Education & Sport Sciences, and the scholars of<br />

other faculties that relate their subject matter with this important discipline.<br />

Correspondence:<br />

All correspondence and manuscripts should be addressed to the<br />

Editors/Director of the Centre for <strong>Ph</strong>ysical Education & Sport Sciences, University of<br />

Sindh, Jamshoro, Pakistan.<br />

Guideline for Contributors:<br />

The research paper must be typed, double spaced on A-4 size paper, and limited to<br />

10 – 15 computerized pages to be sent in duplicate, along-with the text in a CD-disc and<br />

through E-mail to hpe_su_jamshoro@yahoo.com or iqbalqureshi2005@yahoo.com. All<br />

contributors must follow the recognized style of typing references and bibliography as<br />

incorporated in K. I. Turabian’s manual for term papers and research articles. It would be<br />

appreciated if footnotes/ references are given serial numbers/ or alphabetically and be placed<br />

at the end of article.<br />

Note:<br />

*All statements of fact and opinions expressed in this journal are the sole<br />

responsibility of the authors, and do not imply any endorsement on part or whole in any<br />

form or shape whatsoever by the editors or publisher.<br />

Ulrich’s Periodical Directory, New Jersey, U.S.A:<br />

Research Journal- “The Shield” is listed and indexed in Ulrich’s Periodical Directory,<br />

New Jersey, USA and the abstracts of the published articles are cited and printed electronically<br />

from its database directory (www.ulrichsweb.com).<br />

Sports Information Resource Centre (SIRC), Ottawa, Canada:<br />

The abstract, and indexation of the articles published in “The Shield” are also<br />

available at SIRC (Sports Information Resource Centre) Ottawa, Canada, can be viewed<br />

electronically (www.sirc.ca).<br />

ProQuest, Wisconsin, USA:<br />

The Shield is indexed in Natural Science in ProQuest, publisher and<br />

distributor of secondary source reference databases.<br />

• Articles of all published volumes of The Shield can be viewed electronically on<br />

University of Sindh website: www.usindh.edu.pk, see Research Journal / The Shield<br />

SUBSCRIPTION:<br />

Individuals: …………………………….. Single Copy = Rs. 150/-; outside Pakistan US $ 10<br />

Libraries: ……….....................................… Single Copy = Rs. 300/-; outside Pakistan US $ 15<br />

i


PATRON<br />

<strong>Prof</strong>. Nazir A. Mughal, <strong>Ph</strong>.D.<br />

Vice-Chancellor, University of Sindh, Jamshoro<br />

EDITOR-IN-CHIEF<br />

<strong>Prof</strong>. Muhammad Tahir Rajput, <strong>Ph</strong>.D.<br />

Dean, Faculty of Natural Sciences, University of Sindh, Jamshoro<br />

EDITORS<br />

<strong>Prof</strong>. <strong>Yasmeen</strong> <strong>Iqbal</strong>, <strong>Ph</strong>.D.<br />

Director, Centre for <strong>Ph</strong>ysical Education & Sports Sciences,<br />

University of Sindh, Jamshoro<br />

<strong>Darlene</strong> A. <strong>Kluka</strong>, <strong>Ph</strong>.D<br />

<strong>Prof</strong>essor and <strong>Coordinator</strong>,<br />

Sports Management Programs, Barry University,<br />

School of Human Performance and Leisure Science,<br />

Department of Sport and Exercise Sciences, Miami Shores, Florida, USA<br />

COORDINATOR<br />

<strong>Prof</strong>. <strong>Iqbal</strong> Ahmed Qureshi<br />

Former Dean, Faculty of Social Sciences<br />

Ex-Director, Centre for Health & <strong>Ph</strong>ysical Education,<br />

University of Sindh, Jamshoro<br />

<strong>Prof</strong>. Gudrun Doll-Tapper, <strong>Ph</strong>.D.<br />

President,<br />

International Council of Sports Science &<br />

<strong>Ph</strong>ysical, Berlin, Germany.<br />

<strong>Prof</strong>. Colin Higgs, <strong>Ph</strong>.D.<br />

School of Human Kinetics and Recreation<br />

Memorial University of Newfoundland, Canada<br />

<strong>Prof</strong>. Afzal Kazmi, <strong>Ph</strong>.D.<br />

Former Chairman,<br />

Department of <strong>Ph</strong>ysical Education,<br />

University of Karachi, Karachi<br />

ADVISORY BOARD<br />

ii<br />

<strong>Prof</strong>. Frank Fu, J.P. <strong>Ph</strong>.D.<br />

Dean, Faculty of Social Sciences<br />

Hong Kong Baptist University Kowloon Tong,<br />

Hong Kong.<br />

<strong>Prof</strong>. Dorothee Alferman, <strong>Ph</strong>.D.<br />

Faculty of Sports Science & Management<br />

Leipzig University, Germany<br />

<strong>Prof</strong>. Ikram Hussain, <strong>Ph</strong>.D.<br />

Deptt. of <strong>Ph</strong>ysical Health & Sports Education,<br />

Aligarh Muslim University, Aligarh, India


PANEL OF INTERNATIONAL PEER REVIEWERS<br />

<strong>Prof</strong>. Colin Higgs, <strong>Ph</strong>.D.<br />

School of Human Kinetics and Recreation<br />

Memorial University of Newfoundland, Canada<br />

<strong>Prof</strong>. <strong>Darlene</strong> <strong>Kluka</strong>, <strong>Ph</strong>.D.<br />

<strong>Prof</strong>essor and <strong>Coordinator</strong>,<br />

Sports Management Programs, Barry University,<br />

School of Human Performance and Leisure Science,<br />

Department of Sport and Exercise Sciences,<br />

Miami Shores, Florida, USA<br />

Farhan M. Khan, MD<br />

Clinical Assistant <strong>Prof</strong>essor of Medicine,<br />

Chairman PGIP Committee<br />

Michigan State University, USA<br />

<strong>Prof</strong>. Gudrun Doll-Tepper, <strong>Ph</strong>.D.<br />

President,<br />

International Council of Sports Science &<br />

<strong>Ph</strong>ysical Education, Berlin, Germany.<br />

<strong>Prof</strong>. <strong>Ph</strong>yllis Love, <strong>Ph</strong>.D.<br />

Department of Exercise <strong>Ph</strong>ysiology / Diabetes,<br />

Grambling State University<br />

Louisiana, USA<br />

Dr. Eric Peter Sabonghy, MD<br />

The University of Texas Medical School at<br />

Houston, USA<br />

Dr. Nabeela <strong>Iqbal</strong><br />

Clinical Research <strong>Coordinator</strong> & Data Manager<br />

University of Michigan Ann-Arbor, USA<br />

<strong>Prof</strong>. Maria Dinold, <strong>Ph</strong>.D.<br />

Centre of Sports Sciences and<br />

University Sports in Vienna, Austria<br />

iii<br />

<strong>Prof</strong>. Frank Fu, J.P. <strong>Ph</strong>.D.<br />

Dean,<br />

Faculty of Social Sciences, Hong Kong<br />

Baptist University, Kowloon Tong,<br />

Hong Kong.<br />

<strong>Prof</strong>. Abel Lamina, Toriola, <strong>Ph</strong>.D.<br />

Department of Sports, <strong>Ph</strong>ysical<br />

Rehabilitation and Dental Sciences, Faculty<br />

of Health Sciences,<br />

Tshwane University of Technology,<br />

Pretoria, South Africa<br />

<strong>Prof</strong>. Salmar Burger, <strong>Ph</strong>.D.<br />

Department of Sports Management,<br />

University of Pretoria, South Africa<br />

<strong>Prof</strong>. Chung Pak-Kwong, <strong>Ph</strong>.D.<br />

Head, Department of <strong>Ph</strong>ysical Education<br />

Hong Kong Baptist University.<br />

<strong>Prof</strong>. Ikram Hussain, <strong>Ph</strong>.D.<br />

Ex-Chairman<br />

Department of <strong>Ph</strong>ysical Education<br />

Aligarh Muslim University, Aligarh, India<br />

Dr. Doris, R. Corbett<br />

<strong>Prof</strong>essor & Chairman,<br />

Department of Health, Human Performance<br />

& Leisure Studies,<br />

Howard University, USA<br />

Kalpna Sharma, <strong>Ph</strong>.D.<br />

Director, Amity School of <strong>Ph</strong>ysical Education<br />

and Sports Sciences,<br />

Amity University, Noida, Uttar Pradesh, India


Volume 05, 2010 ISSN 1991-8410<br />

CONTENTS<br />

Aerobic Training Reduces the Risk Factors of Coronary Heart<br />

Diseases and Enhances the Antioxidant Status among Middle<br />

Aged Obese Men 01<br />

T. Narayanasamy, P. Kanaga Sabai, Annida Balakrishnan and<br />

Suthakar Krishnaswamy<br />

The Relationship between Sport Activities, Academic Achievements<br />

and Personality Dynamics of High School Students in Sindh 19<br />

Pervez A. Pathan, M. Akram Ansari, and <strong>Yasmeen</strong> <strong>Iqbal</strong><br />

Understanding and Managing Drugs in Sport 29<br />

Paul Dimeo<br />

Effect of Progressive Muscle Relaxation Training on Competitive<br />

Anxiety of male Inter-collegiate volleyball players 44<br />

B. Navaneethan, R. Soundara Rajan<br />

A Protocol and comparative norms for the identification and selection<br />

of talent among elite Age-Group rugby players in South Africa 58<br />

Pieter E. Kruger, Conrad Booysen, Emanuel J. Spamer<br />

Leadership Behavior among Elite male and female gymnasts of India 79<br />

Raj Kumar Sharma<br />

Children’s perception of physical education and school<br />

Sport in Swaziland 96<br />

O.M. Toriola<br />

Role of Sports in Leadership: A socio-political analysis 108<br />

Saima Shaikh, Hamadullah Kakepoto and Aslam Pervez Memon<br />

Relative timing and rhythm: A key to motor skill learning 120<br />

Lin Wang<br />

iv


AEROBIC TRAINING REDUCES THE RISK<br />

FACTORS OF CORONARY HEART DISEASES AND<br />

ENHANCES THE ANTIOXIDANT STATUS AMONG<br />

MIDDLE AGED OBESE MEN<br />

T. Narayanasamy 1 , Dr. P. Kanaga Sabai 2 , Dr. Annida Balakrishnan 3 ,<br />

and Suthakar Krishnaswamy 4<br />

ABSTRACT<br />

Regular exercise training is recognized as a powerful tool to improve<br />

work capacity, endothelial function and the cardiovascular risk profile in<br />

obesity. To achieve this purpose the present research was undertaken to<br />

investigate that the effect of aerobic training programme performed at<br />

different intensities reduces the lipid profiles and enhances the antioxidant<br />

status in middle aged obese men. In our study thirty men with coronary heart<br />

disease and their age ranges between 35 and 40 years were selected as<br />

subjects. They were divided into three groups with 10 members of each.<br />

Group I and Group II treated as experimental groups performing aerobic<br />

training at low intensity and medium intensity whereas group III remains as<br />

control with no practice of aerobic training other than regular activities.<br />

Aerobic training programme was conducted for a period of 3 months<br />

(3days/week) to the experimental groups. Data were collected and biochemical<br />

analysis was done. We observed significant alterations on lipid profiles and<br />

enhancement in the antioxidant status in aerobic training groups. Studies<br />

also proved that better effect was seen in medium intensity of aerobic training<br />

groups than others. Results were statistically analyzed using Anova and<br />

DMRT and are significant at p


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

INTRODUCTION<br />

Obesity has become a major health, social and economical<br />

burden of today’s world (James et al., 2004). It has now been well<br />

established that obesity directly increases cardio metabolic risk by<br />

altering the secretion of adipokines and, indirectly, by promoting<br />

insulin resistance and its associated metabolic disorders, such as<br />

Type-2 diabetes. Moreover, obesity causes additional health<br />

problems as it is closely associated with the development and<br />

progression of coronary heart disease, certain forms of cancer,<br />

respiratory complications (e.g. obstructive sleep apnoea) and<br />

osteoarthritis (Kopelman, 2000).<br />

Cardiovascular risk profiling attempts to establish the<br />

absence or presence of a number of risk factors that, together with<br />

overweight and obesity, contribute to the progression of<br />

cardiovascular disease, such as endothelial dysfunction,<br />

hypertension, inactivity and poor exercise capacity (Inga E.<br />

Schjerve et al.,2008). Both overweight and obesity appear to be<br />

associated with low aerobic capacity and impaired endothelial<br />

function (Watts et. al, 2004).<br />

Endurance training improves both aerobic capacity (Rognmo et<br />

al, 2004; Wisloff et. al., 2007) and endothelial function (Wisloff et. al,<br />

2007; Meyer et. al., 2006), and is now increasingly recommended in the<br />

prevention and treatment of overweight and obesity (Haskell et, al.,<br />

2007). It has been known that endurance exercise training, decreases<br />

cardiovascular risk, but an optimal training programme has not yet<br />

been identified. Similarly, criteria for the minimum protective exercise<br />

programme against overweight and obesity have not been established.<br />

Although the recommended exercise intensity spans the range 40–90%<br />

of VO2max (maximal oxygen uptake), most studies indicate that highintensity<br />

exercise, i.e. toward the upper end of the range, results in<br />

larger aerobic and cardiovascular adaptations (Dubach et. al.,1997;<br />

Hambrecht, et. al., 2000; Lee et. al., 2003), and many rehabilitation<br />

programmes advocate the use of low-to-moderate-intensity exercise.<br />

2


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

Exercise remains a key aspect of a healthy lifestyle.<br />

However, strenuous physical exercise results in an enhanced<br />

uptake of oxygen leading to increased metabolism, which can<br />

increase the production of reactive oxygen species (ROS) (Kelle et<br />

al., 1998). Cells continuously produce free radicals and ROS as part<br />

of metabolic processes. These free radicals are neutralized by an<br />

elaborate antioxidant defense system consisting of enzymes such as<br />

catalase, superoxide dismutase, glutathione peroxidase, and<br />

numerous non-enzymatic antioxidants, including vitamins A, E<br />

and C, glutathione, ubiquinone, and flavonoids. Exercise can cause<br />

an imbalance between ROS and antioxidants, which is referred to<br />

as oxidative stress (Urso and Clarkson, 2003).<br />

Oxidative stress may occur due to an increase in free radical<br />

production and/or a decrease in antioxidant defenses (Mustafa Gul<br />

et al., 2003). Without the intervention of the cell’s antioxidant<br />

defense mechanisms, free radical-mediated lipid peroxidation can<br />

lead to the loss of the integrity of cell membrane and tissue damage<br />

(Maxwell, 1995; Clarkson and Thompson, 2000). The efficiency of<br />

the antioxidant defense system depends on the balanced diet.<br />

Multiple enzymatic and non-enzymatic antioxidant defense<br />

systems are present in cells to protect the membranes and other cell<br />

organelles from the damaging effects of free radical reactions<br />

(Evans, 2001). While regular exercise training is associated with<br />

numerous health benefits, it can be viewed as an intense physical<br />

stressor leading to increased oxidative cellular damage, likely due<br />

to enhanced production of ROS (Bloomer et al., 2005). Though<br />

many studies have reported that acute aerobic exercise contributes<br />

to oxidative stress, especially when performed at high intensity<br />

levels (Muaz Belviranli and Hakki Gokbel, 2006). Our present study<br />

was carried out to find whether aerobic exercise performing at<br />

different intensity reduces lipid profiles and increases antioxidant<br />

levels. It also determines a relative effect in depletion of free<br />

3


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

radicals generation leading to lipid peroxidation and thereby<br />

protects the cells by enhancing the antioxidant status.<br />

METHODOLOGY<br />

Selection of Subjects: Thirty men were randomly selected as subjects<br />

with coronary heart disease from R.M.M.C&H, Annamalai University<br />

and their age ranged between 35 and 40 years. Selected subjects were<br />

divided into three groups with ten members in each.<br />

Experimental Design: The primary purpose of the study was to<br />

investigate the effect of different intensities of aerobic training on<br />

coronary heart disease middle aged obese men. The selected<br />

subjects were divided into three groups performing aerobic<br />

exercise at different levels.<br />

Group I initiates their work load with 20% of aerobic training ends<br />

with 45% (low intensity) for twelve weeks (3days/week)<br />

Group II starts their workload with 35% of aerobic training and<br />

ends with 50% (medium intensity) for twelve weeks (3days/week)<br />

Group III served as control who did not participate any special<br />

training apart from the regular activities.<br />

Aerobic exercise training: Aerobic exercise training program was<br />

conducted in the Department of <strong>Ph</strong>ysical Education and Sports<br />

Science Annamalai University for a period of 3 months (3<br />

days/week). Each exercise session consisted of three components:<br />

(i) a 10 min warm-up period consisting of stretching and low-level<br />

calisthenics, (ii) a 20 –30 min period of aerobic exercise, and (iii) a<br />

10 min cool-down period also involving low-level calisthenics and<br />

walking. Aerobic exercise (for example, fast walking, jogging, and<br />

swimming) should be the mainstay of exercise training in patients<br />

with CHD. Supervised exercise training programs are also<br />

beneficial, especially during the initiation period. They ensure that<br />

patients are exercising safely, and permit one to assess progress.<br />

Biochemical analysis was done and measured using the<br />

appropriate test. All the groups were tested before and after the<br />

training period of twelve weeks.<br />

4


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

THREE MONTH AEROBIC TRAINING PROGRAM<br />

MONTHLY GOALS WEEKLY SCHEDULE<br />

THREE MONTHS PRIOR TO<br />

a. Aerobic train 3 days a week<br />

DAY<br />

WORK OUT 1 2 3 4 5 6 7<br />

Aerobic ☼ ☼ ☼<br />

Strength ☼ ☼ ☼<br />

Recreation ☼<br />

Rest ☼<br />

WORKOUT DETAILS & NOTES<br />

Purpose: Get into a routine of exercising regularly. Start off easy and concentrate on one day at a time.<br />

Exercises:<br />

1. Aerobic training can include running, biking, swimming, cross-country skiing, etc. for a minimum of 30<br />

minutes per session.<br />

2. Strength training should include exercises working mostly on upper body strength. Include exercises<br />

for arms, shoulders, back, and abdominals. Each exercise should include 3 sets of 10-15 reps so that muscle<br />

failure occurs on last set.<br />

3. Recreational exercise is any form of fun exercise that you enjoy. Can include climbing, hiking,<br />

biking,etc.<br />

TWO MONTHS PRIOR TO<br />

a. Aerobic train 3 days a week<br />

b. Hill or stair climbing 1 day a week<br />

c. Strength train 3 days a week<br />

d. Recreate 1 day a week<br />

e. Rest 1 day a week<br />

WORKOUT 1 2 3 4 5 6 7<br />

Aerobic ☼ ☼ ☼<br />

Hill or Stairs ☼ ☼ ☼<br />

Strength ☼ ☼ ☼<br />

Recreation ☼<br />

Rest ☼<br />

Purpose: Building a strong foundation of fitness for the mountains.<br />

Exercises:<br />

1. Continue aerobic workouts as last month's but increase duration to at least 40-min. Include hill and/or<br />

stair climbing workouts as an aerobic exercise at least once a week for at least 30 min. Carry 20 lbs. in a<br />

backpack while you climb.<br />

2. Strength training should continue and increase resistance to maintain muscle.<br />

3. Continue recreating at least once a week.<br />

ONE MONTH PRIOR TO WORKOUT 1 2 3 4 5 6 7<br />

a. Aerobic train 3 days a week Aerobic ☼ ☼ ☼<br />

b. Hill or stair climbing 1-2 days a<br />

c. Strength k train 4 days a week<br />

d. Recreate 1 day a week.<br />

e. Rest 1 day a week Rest<br />

Hill or Stairs ☼ ☼ ☼<br />

Strength ☼ ☼ ☼<br />

Recreation ☼<br />

Purpose: Build your endurance and strength.<br />

Exercises:<br />

1. Increase aerobic session to 45 min. Increase weight for carrying uphill by 10 lbs. and increase duration.<br />

2. Strength train as before but increase resistance as needed.<br />

3. Continue your fun recreational workout at least once a week<br />

5<br />


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

Selection of variables:<br />

The following coronary heart disease (CHD) variables were<br />

selected as testing variables and they were Lipid peroxidative<br />

indices such as TBARS (thiobarbituric acid reactive substances) and<br />

hydroperoxides Plasma Lipid profiles such as Cholesterol,<br />

Triglycerides, phospholipids and free fatty acids.<br />

Plasma lipoproteins are High density lipoproteins (HDL),<br />

Low density lipoproteins (LDL), Very low density lipoproteins<br />

(VLDL), and Enzymic antioxidants include Superoxide dismutase<br />

(SOD), Catalase (CAT) and Glutathione peroxidase (GPX) and<br />

Non-enzymic antioxidants such as Vitamin C, Vitamin E and<br />

Reduced Glutathione (GSH).<br />

Biochemical estimations:<br />

Lipid peroxidative indices such as TBARS were estimated by<br />

the method of Ohkawa et al., (1979) and Hydro peroxides by Jiang<br />

et al., (1992). Estimation of Cholesterol using Allain et al., 1974,<br />

triglycerides (Foster and Dunn, 1973), Free fatty acids by<br />

(Falholt,1973) and phospholipids (Zilversmit and Davis,1950).<br />

Plasma lipoprotein estimated by Boheringer manhim kit.<br />

Antioxidants includes enzymic antioxidants such as SOD estimated<br />

by the method of Kakkar et al.,(1942), catalase (Sinha, 1972) and<br />

GPX (Rotruck etal., 1973). Non enzymic antioxidants include GSH<br />

(Ellman, 1959), Vitamin C (Roe and Kuther, 1942), Vitamin E (Baker<br />

et al., 1980) were analysed. Biochemical analyses were done<br />

accurately in the Department of Biochemistry for the selected<br />

variables and the results were reported by the concerned<br />

Biochemist to our scholar.<br />

Statistical analysis:<br />

The data were collected before and after the different<br />

intensities of aerobic training programme on both the experimental<br />

and control group. Biochemical variables were assessed before and<br />

6


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

after 3 months of aerobic training. The data were analyzed using<br />

ANOVA and the group means were compared by Duncan’s<br />

Multiple Range Test (DMRT). There differences was considered to<br />

be significant when p


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

Table: 3<br />

Changes in the levels of Plasma Lipoprotein in control and<br />

exercise groups<br />

Groups HDL mg/dl LDL mg/dl VLDL mg/dl<br />

CHD (Low intensity) 42.3 ± 5.2 a 169.2 ± 11.3 a 37.65 ± 2.9 a<br />

CHD (Medium intensity) 48.2 ± 3.8 b 155.5 ± 12.6 b 30.8 ± 4.6 b<br />

Control 37.6 ± 4.6 c 196.3 ± 21.6 c 43.9 ± 5.3 c<br />

Data represents mean± SD from 10 subjects in each group.<br />

Values not sharing a common superscript letter (a,b,c) differ significantly at p≤0.05 (Duncan’s multiple range test)<br />

Group comparison: Group 3 with all, Group 2 with 3 and 1.<br />

Table.4<br />

Changes in the levels of enzymic antioxidant status in control<br />

and exercise group<br />

Groups<br />

CHD<br />

(Low intensity)<br />

CHD<br />

(Medium intensity)<br />

SOD<br />

(U A /mg Hb)<br />

8<br />

CATALASE<br />

(U A /mg Hb)<br />

GPX<br />

(U A /mg Hb)<br />

0.93±0.002 a 8.7±0.07 a 55.11±0.4 a<br />

1.36±0.03 b 9.8±0.2 b 60.33±0.1 b<br />

Control 1.7±0.02 c 11.8±1.3 c 62.11±0.4 c<br />

Data represents mean± SD from 10 subjects in each group.<br />

Values not sharing a common superscript letter (a,b,c) differ significantly at p≤0.05 (Duncan’s multiple range test)<br />

Group comparison: Group three with all, Group2 with3 and 1.<br />

A- Enzymes required for 50% inhibition of NBT reduction/min/mg Hb<br />

Table: 5<br />

Changes in the levels of non-enzymic antioxidant status in<br />

control and exercise groups<br />

Groups<br />

Vitamin E<br />

(mg/dl)<br />

Vitamin C<br />

(mg/dl)<br />

Glutathione<br />

(mg/dl)<br />

CHD Low Intensity 1.18 ± 0.14a 1.32 ±0.15a 42.3±2.8a CHD medium Intensity 1.25 ± 0.16b 1.66 ±0.11b 48.2±1.6b Control 0.86 ±0.07c 0.83 ± 0.06c 39.7±3.5c Data represents mean± SD from 10 subjects in each group.<br />

Values not sharing a common superscript letter (a,b,c) differ significantly at p≤0.05 (Duncan’s multiple range test)<br />

Group comparison: Group 3 with all, Group 2 with 3 and 1.


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

The levels of TBARS and hydroperoxides were found to be<br />

increased in control groups of coronary heart patients. Aerobic<br />

training at different intensity lowers the levels of TBARS and<br />

hydroperoxides in CHD patients. Medium intensity training<br />

exercises shows better effect in reducing the lipid peroxides levels<br />

than other groups. (Table.1)<br />

Table 2 shows the levels of cholesterol, triglycerides, free<br />

fatty acids and phospholipids in control and exercise groups. The<br />

levels of lipid profiles in experimental groups were decreased by<br />

performing the aerobic exercise at different intensities. Medium<br />

intensity exercise shows significant changes than control and low<br />

intensity groups.<br />

Table 3 shows the levels of HDL, LDL and VLDL in control<br />

and aerobic training groups. The increased levels of lipoprotein in<br />

control group were seen than aerobic training groups. Exercise<br />

training for three months shows predominant changes in aerobic<br />

training groups when compared to control. We also found<br />

significant increase in HDL and decrease in LDL and VLDL levels<br />

in work performing at medium level of CHD patients.<br />

SOD, CAT and GPX were significantly decreased in control<br />

group of CHD patients. The activities of enzymic antioxidants<br />

were significantly elevated in low and medium intensity CHD<br />

group. Regular practice of exercise enhances the antioxidant status<br />

and it was also found that significant effect was seen only in<br />

medium intensity exercise group than other. (Table.4)<br />

Non-enzymic antioxidants such as GSH, vitamin-C and<br />

vitamin-E levels were decreased in control group of CHD patients.<br />

Hence three months training retained the levels of GSH, vitamin-C<br />

and vitamin-E in experimental training groups than control. Much<br />

better improvement in the non-enzymic antioxidant status was<br />

noticed in performing the aerobic exercise of medium intensity<br />

work load. (Table.5)<br />

9


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

DISCUSSIONS<br />

<strong>Ph</strong>ysical activity is widely accepted to be a protective factor<br />

against the development of atherosclerotic disease (Berlin and<br />

Colditz, 1990). Thiobarbituric reactive substances (TBARS) and<br />

hydroperoxides, (HP) a marker of in vivo lipid peroxidation were<br />

increased in control group. Therefore, the improved antioxidant<br />

status found in the aerobic training groups could efficiently counter<br />

balance the oxidative stress produced by exercise.<br />

Exercise has been shown to favorably alter lipids and<br />

lipoprotein concentrations, especially to raise plasma HDL-C and<br />

lower triglyceride concentration, blood pressure and inflammation<br />

and improve insulin sensitivity (Thompson et al., 2001). However<br />

our present study shows that different intensity of aerobic training<br />

groups reduces the concentration of triglyceride, cholesterol,<br />

phospholipids and free fatty acids and thereby promotes the HDL<br />

cholesterol. This may be due to the medium intensity of aerobic<br />

training though low level training slightly moderates the lipid<br />

levels, compared to control, medium intensity of aerobic exercise<br />

works better and proved to be efficient in reducing lipid levels<br />

thereby enhances the antioxidant status.<br />

Most studies reported that exercise generally lowers plasma<br />

triglycerides (TG) concentrations when TG are moderately to<br />

markedly elevated, and high intensity exercise is more effective<br />

than low intensity exercise (Gyntelberg etal.,1977;Kraus etal.,2002).<br />

In our study we found that medium intensity of aerobic training<br />

groups are very effective when compared to low level intensity.<br />

This study was supported by the recent statements from the<br />

Surgeon general (US Department of Health and Human<br />

Services,1996), the National Institute of Health Consensus<br />

Development Panel on <strong>Ph</strong>ysical Activity and Cardiovascular<br />

Health (NIH, 1996) and the centers for disease control and<br />

prevention and the American College of Sports Medicine (Pate<br />

etal.,1995) recommend that every adult should accumulate at least<br />

10


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

30 minutes of moderate intensity of physical activity on most<br />

preferably all days of the week to prevent CHD and other chronic<br />

disease. Recent intervals also suggested that moderate intensity<br />

physical activity may have benefits on coronary risk factors than<br />

vigorous activities of high intensity (Howard et. al., 2009).<br />

Among the modifications in the lipoprotein profile assigned<br />

to regular exercise, the most generally diffused one could be a<br />

moderate increase in HDL-C levels (Nakamura et. al., 1983), a wellknown<br />

anti atherogenic factor. In this study, different levels of<br />

aerobic training exhibited increase in HDL-C concentration in<br />

comparison with the control subjects. But better effect was seen in<br />

subjects performing aerobic exercises at medium intensity work<br />

load.<br />

With regards to LDL-C and VLDL levels, we were able to<br />

find variation in aerobic groups when compared to control subjects.<br />

We found significant decrease in LDL and VLDL in medium<br />

intensity aerobic groups than other. Studies also reported that<br />

related to physical activity. It seems that athletes generally show<br />

similar or slightly decreased LDL-C concentrations in comparison<br />

with sedentary people, whereas a greater reduction is only<br />

observed after repeated intense training (Cullinane et. al., 1982).<br />

In the present study resulted that generation of free radicals<br />

have been suppressed due to the enhanced level of antioxidants.<br />

The study shows increased lipid peroxidation in control group<br />

when compared to experimental treated groups. Aerobic training<br />

performed at different levels reduces the formation of peroxidation<br />

products by increasing the antioxidant levels.<br />

The production of oxygen free radicals is increased during<br />

exercise as a result of increases in mitochondrial oxygen<br />

consumption and electron transport flux, inducing lipid<br />

peroxidation and a series of adaptive responses (Kanter, 1994).<br />

Plasma levels of nonenzymatic antioxidants can be modified<br />

by exercise. Consistent with a previous work (Sen ,1993), a high<br />

11


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

training status has a favourable influence on plasma TRAP levels;<br />

TRAP mainly accounts for the aqueous antioxidant compounds,<br />

which include glutathione, ascorbic acid, uric acid and bilirubin<br />

(Evelson et. al.,2001)<br />

In the present study, we found a significant increase in the<br />

total radical antioxidant potential (TRAP) values of aerobic training<br />

groups as compared to samples obtained from non trained<br />

individuals of control. But the medium intensity of training shows<br />

better effect than other groups. This difference could be assigned to<br />

the increment in ascorbic acid levels found in aerobic training<br />

groups, Accordingly, different studies (Brites et. al., 1999; Sen, 1993;<br />

Dekkers et. al., 1996; Maxwell et. al., 1993) have reported higher<br />

levels of ascorbic acid in circulation because of exercise.<br />

Several reports (Jenkins, 1993; Sjodin et. al.,1990) have<br />

suggested that the activity of the antioxidant enzymes are increased<br />

in skeletal muscles of trained individuals. This response seems to<br />

depend on the duration and intensity of exercise. In the present<br />

study, we evaluated the activity of superoxide dismutase, catalase<br />

and glutathioneperoxidase in plasma samples obtained from<br />

aerobic training groups of coronary disease patients and control<br />

CHD patients. Trained individuals showed a significantly<br />

increased activity of superoxide dismutase, catalase and GPX as<br />

compared to sedentary individuals.<br />

Alpha-tocopherol is considered the most important lipid<br />

soluble antioxidant, with several other functions as the maintainer<br />

of membrane fluidity and stability. This compound directly<br />

scavenges peroxyl radicals, which are generated in the lipid moiety<br />

of membranes and lipoproteins (Diplock ,1983). Plasma levels of atocopherol<br />

were significantly increased in the aerobic training CHD<br />

as compared to the control values. This increase in plasma atocopherol<br />

levels could attenuate exercise-induced lipid<br />

peroxidation by scavenging free radicals and thus protecting the<br />

muscle from being damaged during exercise. Moreover, a-<br />

12


AEROBIC TRAINING REDUCES THE RISK FACTORS<br />

tocopherol has been shown to exert several atheroprotective actions<br />

by reducing platelet adhesion and aggregation, decreasing the<br />

expression of adhesion molecules that can cause neutrophils to<br />

stick to the endothelium, inhibiting K-dependent clotting factors,<br />

stimulating nitric oxide production, impairing cell proliferation,<br />

and stabilizing the atherosclerotic plaque (Pryor, 2000).<br />

Thus in our study medium intensity of aerobic training plays<br />

a vital role in decreasing the blood lipids and lipoprotein levels and<br />

retains the antioxidant activity.<br />

CONCLUSION<br />

The study concluded that performing different intensity of<br />

aerobic training ameliorates the coronary risk factors in middle<br />

aged coronary heart disease obese men by reducing the lipid levels<br />

and enhancing the antioxidant status. It was also found that<br />

medium intensity of aerobic exercise was very effective in reducing<br />

the lipid levels and promotes the antioxidant activity. Thus our<br />

present study also assures medium intensity training better safer<br />

than vigorous exercises in CHD patients.<br />

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18


THE RELATIONSHIP BETWEEN SPORT ACTIVITIES,<br />

ACADEMIC ACHIEVEMENTS AND PERSONALITY<br />

DYNAMICS OF HIGH SCHOOL STUDENTS IN SINDH<br />

ABSTRACT<br />

Dr. Pervez A. Pathan 1 , M. Akram Ansari 2 , and<br />

Dr. <strong>Yasmeen</strong> <strong>Iqbal</strong> 3<br />

This paper examines the relationship between education<br />

performance of person and his grooming in the society with sports<br />

activities especially at early education levels of schooling. Some valid<br />

inferences have been drawn to indicate that sports activities in early<br />

schooling age has significant impact on big five personality traits in the<br />

later part i.e. professional life of a person.<br />

Key Words: Extravert, Agreeableness; Neuroticism Conscientiousness;<br />

Openness to experience. Sports Participants and Non Participants<br />

METHODOLOGY<br />

607 male high school students were randomly selected from<br />

various high schools in the 8 districts of Sindh namely Badin,<br />

Hyderabad, Jamshoro, Khairpur, Larnkana, Qamber, Sanghar and<br />

Sukkur.<br />

52% of total sample (i.e. 317) respondents were sports<br />

participants at least in one of the school sports activities such as<br />

athletics, cricket, hockey, table tennis, badminton, volleyball,<br />

football and kabaddi. The remaining 48 percent (i.e. 290) samples<br />

were non-sports participants in high schools.<br />

1 <strong>Prof</strong>essor, Sindh Development Study Centre, University of Sindh, Jamshoro<br />

2 Assistant <strong>Prof</strong>essor, Centre for <strong>Ph</strong>ysical Education & Sports Science, University of Sindh, Jamshoro<br />

3 <strong>Prof</strong>essor, & Director, Centre for <strong>Ph</strong>ysical Education & Sports Science, University of Sindh, Jamshoro


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

INTRODUCTION<br />

Literature shows that appropriate sport participation for most<br />

high school students is detrimental to their educational progress and it<br />

has significant impact on personality trait (Melnick, Sabo and Vanfosen,<br />

1992; Casey, 1989; Parker & Johnson, 1981). The research is geared<br />

towards validating the literature and to assess the extent to which sport<br />

participation among high school students has positive psycho-social<br />

and/or psycho-educational performance. The research reveals that<br />

sports participants perform badly in academic grades in comparison non<br />

sports participants, although their achievements in terms of winning<br />

sports awards were significantly high to that of non sports participants.<br />

The paper is divided into three parts: Part one provides theoretical<br />

framework derived from literature review. Part two highlights study<br />

results, interpretation of data and research findings. Finally, part three<br />

presents conclusions and relevant references.<br />

Parker & Johnson, 1981 reported that the sport activities<br />

reflected time away from the classroom. Whereas, some studies on<br />

the relationship of sport participation of high school students to<br />

academic achievement contradict results and show that sport<br />

participation either contributes positively in a small way to student<br />

achievements especially grades or does not impact student<br />

achievements in the classroom (Marsh, 1988).<br />

Table 1: Consolidated work helped to carryout research:<br />

Author (s) Year Major Findings<br />

1.Perry RP et al 1979 Sports participation could also create intrinsic values for students.<br />

2. Johnson 1994 Improve students Grades keeps them in schools, rises their<br />

educational aspiration.<br />

3. Maners PA<br />

and Smart<br />

1995 Participation in too many activities produced diminishing<br />

returns. Participation in sports and other extra-curricular<br />

activities was consistently, but participation in some<br />

activities had mixed or predominately negative effects<br />

which needs further research.<br />

20


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

4. Mitcheli DL 1994 Students sports related activities are significantly related<br />

with their success rates in the professional life<br />

5. Linder KJ<br />

1999 Supporters of high school sports programs argue that sport<br />

participation improves students’ achievements motivation.<br />

6. Rasmussen 1999 Athletic team participation was related to identity<br />

foreclosure, particularly for males. With respect to whether<br />

student’s participation on sports activities was beneficial to<br />

their academic goals.<br />

7.Trembly et al 2000 Highly active individuals were significantly more optimistic &<br />

experienced self – efficacy than those non active or low active people<br />

8. Tross SA et al 1999-<br />

2000<br />

Found that sports could facilitate positive racial / ethnic<br />

relations as well as positive inter group attitudes and<br />

behavior among northern and southern school children’s.<br />

Contrary to this, supporters (Slavin, R.E., & Madden, N.A<br />

1997) of high school sport programs argue that sport participation<br />

improves students’ achievement as motivation improves students’<br />

grades, keeps them in school, raises their educational aspirations<br />

helps them appreciate health, exercise and fitness, helps them learn<br />

about themselves and learn to handle adversity, and helps them<br />

experience team work and sportsmanship. To sum up, the quantity<br />

of research literature in this field is fast growing but schoolsponsored<br />

sport activities for high school students are still not fully<br />

understood. It is imperative to determine the factors which<br />

positively impact the student’s ability to succeed academically in<br />

school in conjunction with excellence in sports activities during<br />

high school studies. A consolidated review is provided in a tabular<br />

format at Table 1.<br />

Study Results and Findings<br />

This study results and findings were based upon randomly<br />

selecting 607 male high school students from various high schools<br />

in eight (8) districts1 of Sindh. The sampling frame was split in two<br />

1 Badin; Hyderabd; Jamshoro; Khairpur; Larkana; Qamber; Sanghar; and Sukkur<br />

21


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

i.e., sports participants and non-sports participants. 52% of total<br />

sample (i.e. 317) respondents were sports participants who<br />

participated at least in one of the school sports activities such as<br />

athletics, cricket, hockey, table tennis, badminton volley ball, foot<br />

ball, and Kabaddi. The remaining 48 percent (i.e. 290) sample was<br />

non-sports participants in high schools of sample districts.<br />

Table 2 provides details about sample respondents’ age and<br />

ethnic groups. Table shows symmetrical distribution in terms of<br />

age of sample participants, especially age group of 15 years. Data<br />

further shows that 66 percent of total respondents represented<br />

Sindhi as their mother tongue. Besides, a fair representation of<br />

participants from various ethnic groups could also be observed. A<br />

large sample from Sindhi speaking respondents is mainly based<br />

upon purposive selection of respondents of Sindhi speaking<br />

localities. The purpose was to ensure quality data as language<br />

could be a barrier in expression and communication.<br />

Table 2: Sample Respondents by Age and Ethnic group (n=607)<br />

Demographic characteristics Percent<br />

Ethnic group<br />

Sindhi 66<br />

Urdu 9<br />

Balouch 4<br />

Punjabi 7<br />

Pashto 5<br />

Other 9<br />

Age group<br />

14 Years 21<br />

15 Years 39<br />

16 Years 20<br />

17 Years 20<br />

Survey Data, 2009-10<br />

22


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

It is essential to note that non participants in sports do not<br />

mean zero involvement. The difference between participants and<br />

non participants is that the sports participants significantly spend<br />

more time in sports activities than the non-participants. Nonparticipants<br />

tend to play indoor games, whereas sports participants<br />

play games such as cricket, foot ball and other out- side houses.<br />

One may consider non-participants as non serious with sports<br />

activities yet it is impossible to find a student of 14-17 years<br />

spending no time in sports (Table 3).<br />

Table 3: Percentage of Hours Spend on Sports per Week (n=607)<br />

Sports Non-Sports<br />

Participants Participants<br />

Time spend N=317 n=290<br />

> 15 hours 20* 5<br />

10-14 hours 33* 11<br />

6-9 hours 28* 13<br />

1-5 hours 19* 26<br />

No time spend - 45<br />

Survey Data, 2009-10<br />

Table 4: Percent of Academic Grades of Sports and Non-Sports<br />

Participants (n=607) %<br />

Grades 8 th Class 7 th Class 6th Class<br />

Non-<br />

Sports<br />

Participant<br />

Non-<br />

Sports<br />

Participant<br />

23<br />

Non-<br />

Sports<br />

Participant<br />

Sports<br />

Sports<br />

Participant<br />

Participants<br />

n=290 n=317 n=290 n=317 n=290 n=317<br />

A-I 16 13 10 3 10 13<br />

Sports<br />

Participants<br />

A grade 29 26 23 24 26 30<br />

B grade 26 28 45 33 39 27<br />

C grade 23 30 20 37 22 23<br />

D grade 6 3 2 3 3 7<br />

Survey Data, 2009-10


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

Table 4 shows comparison of academic achievements between<br />

sports participants and non participants. Table clearly indicates that<br />

non-sports participants have good grades as compared to sports<br />

participants. This may be that the non-participants spend more time<br />

on their studies to that of sports participants. The data provides good<br />

base to suggest that even at this early age of education about 86<br />

percent sports participants reported that spending time in education<br />

was tough as it required mental concentration, teachers’ skills in<br />

making things to understand and their parents effective supervisory<br />

role towards keeping checks on them. Survey data confirms that nonsports<br />

participants tend to be regular in the class as they fall above 75<br />

percent strata of the total classroom attendance. Non-sports<br />

participants also did fairly well in terms of attendance in the class but<br />

the mean differences are significantly different at 95% Co-efficient<br />

Interval (CI). Similarly, according to teachers’ perception non-sports<br />

participants tend to do well in classroom assignments, homework,<br />

mid -term tests and in the final examinations and earn good academic<br />

grads to that of sports participants. These findings could be linked<br />

with sports participants’ time apportioned in sports activities.<br />

According to teachers it was very difficult for sports participants to<br />

make sensible compromise between time allotted for sports and<br />

studies.<br />

Table 5: Reasons for Participating in Sports n= 607<br />

Major<br />

Sports<br />

Reasons<br />

Cricket Athletics Football Volleyball Kabaddi Other Total All<br />

Figures in Numbers<br />

%<br />

Favorite 196 20 1 29 5 7 258 81<br />

Keep Fit 3 2 1 1 7 2<br />

Competitive 18 9 2 29 9<br />

For Fun 4 4 1<br />

Family<br />

Background<br />

Survey Data, 2009-10<br />

14 4 1 19 6<br />

24


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

81 percent of total reported that they liked the sports<br />

therefore they were participating. These respondents were involved<br />

in all types of sports including cricket and Kabaddi. Those who<br />

wanted to keep fit chose cricket, athletics and volleyball (Table 5).<br />

Table 6: Respondents’ Relationship with the Member of Family<br />

who play sports % (n=607)<br />

Relationship<br />

Non-Sports<br />

Participant %<br />

Sports Participants<br />

%<br />

Parents/Brothers 2 56<br />

Uncles 8 26<br />

Cousins 13 18<br />

None 77 -<br />

All<br />

Survey Data, 2009-10<br />

100 100<br />

It is interesting to know that involvement of sports<br />

participants in sports has substantial relationship with the fact that<br />

some of their family members did play or else were involved in<br />

sports. For example, out of total approximately 56 percent reported<br />

that their elder family members were involved in competitive<br />

sports. This seems acceptable given that the junior family members<br />

in the family tend to imitate / follow their elder ones.<br />

Table 7: Illnesses during Childhood % (n=607)<br />

Did you have any illnesses Non-Sports Sports<br />

during your childhood Participant % Participant %<br />

Yes 36 11<br />

No 64 89<br />

All 100 100<br />

Survey Data, 2009-10<br />

25


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

Table 7 illustrates relationship between childhood illnesses<br />

with involvement in sports activities. Non-sports participants<br />

reported that they did have history of illness during their<br />

childhood. The illness included acute cases of diarrhea, malaria<br />

and hepatitis etc. They also mentioned that such illness did play a<br />

negative role in distracting them from sports.<br />

Table 8: Health <strong>Prof</strong>ile of sports participants and non-participants:<br />

Sports Non-Sports<br />

Health <strong>Prof</strong>ile Participants Participants<br />

n=317 n=290<br />

Mean Mean t<br />

Mental Health 24.9 23.2 0.14<br />

Emotional Health 19.96 20.56 0.394<br />

Social Health 24.13 23.7 0.262<br />

Survey Data, 2009-10<br />

Table-8 shows the comparative health profile of the sports<br />

and non-sports participants. There is significant difference on the<br />

‘<strong>Ph</strong>ysical’ component of the health among sports and non-sports<br />

participants. No differences were found on other dimensions of the<br />

health. However, non-sport participants were more emotional and<br />

less social as compared to the sports participants.<br />

Table 9: Mean, SD and t-test for Big Five Personality Traits of<br />

Sports and Non-sports Participants<br />

Traits<br />

Sport Participants<br />

N=317<br />

26<br />

Non Participants<br />

N=290<br />

Mean SD Mean SD t p<br />

Extraversion * 3.5 1.585 6.58 2.2 2.59 0.01<br />

Agreeableness 4.16 1.661 5.77 1.83 0.395 0.532<br />

Conscientiousness 3.64 1.554 4.41 1.68 0.059 0.028<br />

Neuroticism 3.54 1.591 4.22 1.74 1.501 0.05<br />

Openness * 3.39 1.565 1.45 2.14 2.268 0<br />

*= Significant at 95 Percent Co-efficient Interval (CI).


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

Survey data reveals that significantly higher proportion of<br />

sport participant’s fall in the category of extraverts this is<br />

understandable given that nature of sports demands assertiveness<br />

and sports create an environment of excitement. Further, more than<br />

50% respondent fall the category of agreeableness. It is mentioned<br />

that for sports person agreeable dimension of personality has<br />

positive relationship in terms of success influenced by team work.<br />

For example Cricket is a team game personality with agreeableness<br />

is must for the success of team. One of the properties that fall under<br />

conscientiousness is self discipline and character. This is linked with<br />

experience and age specially levels of maturity of a person. The<br />

sample respondents hardly fall in the age of maturity which is<br />

evident from the response indicating distribution sparse distribution.<br />

It does not show in proportions the level of conscientiousness among<br />

sports participants of age group in class ix and x.<br />

CONCLUSIONS<br />

The sports especially at early age of education have<br />

significant influence on academic performance. Study shows that<br />

non participants in sports significantly acquired higher grades as<br />

compared to participants in sports. Further 87 percent sample<br />

teachers informed that full time participation required time which<br />

has to be compromised on time required for home work studies.<br />

The serious sports participants invest time in sports rather than for<br />

studies. Sports activities are essential for healthy grooming of child<br />

to become better citizen in future.<br />

It is revealed that the condition of sports facilities in schools in<br />

very poor. All-out efforts at public levels be made to improve these<br />

facilities. There is no serious effort at policy levels to encourage<br />

participation of pupil in sports. Given that pupil who does not perform<br />

well in studies may opt for sports and become future sportsmen on<br />

professional grounds. The encouragement at school levels in sports by<br />

the government is must. This could be achieved through introducing<br />

sports as subject in early study stages of school education.<br />

27


THE RELATIONSHIP BETWEEN SPORTS ACTIVITIES<br />

REFERENCES<br />

1. Mitchell, D.L (1994, May). The Relationship between rhythmic<br />

competency and academic performance in first grade children.<br />

Doctoral Dissertation. Orlando, FL: University of Central<br />

Florida Department of Exceptional and physical Education.<br />

2. Manners. P.A., & Smart D.J. (1995) More development and identify<br />

formation in high school.<br />

3. Slavin, R.E., & Madden, N.A (1997). School practices that<br />

improve race relation. American Educational research journal,<br />

16(2), 169-180)<br />

4. Linder. K.J. (1999). Sport participation and Perceived Academic<br />

Performance of school children and Youth. Pediatric Exercise<br />

Science , 11, 129-144<br />

5. Rasmussen, K. (1999-2000) the changing sports scene<br />

Educational leadership, 57(4), 26-29<br />

6. Tremblay, M.S., Inman, J.W., & Willms, J.D., (2000). The<br />

Relationship Between <strong>Ph</strong>ysical activity, Self-Esteem and<br />

Academic achievement in 12- year old Children, Pediatric<br />

exercise Science, 12, 312-324<br />

7. Tross, S. A., Harper, J. P, Osher, L. W., & Kneidinger, L. M.<br />

(2000). Not just the usual cast of characteristics: Using<br />

personality to predict college. Performance and retention.<br />

Journal of College Student Development, 41(1), 323-334.<br />

8. Perry, R. P., Hladkyl, S., Pekrun, R. H., & Pelletier, S. (2001).<br />

Academic control and action control in the achievement of<br />

college students: A longitudinal field study. Journal of<br />

Educational Psychology, 93, 776-790.<br />

9. http://en.wikipedia.org/wiki/Extraversion_and_introversion<br />

28


ABSTRACT<br />

UNDERSTANDING AND MANAGING<br />

DRUGS IN SPORT<br />

Dr. Paul Dimeo 1<br />

This article addresses some social and management issues relating<br />

to the subject of drugs in sport (doping). It begins with an overview of<br />

recent and prominent cases before developing a comparative approach that<br />

sets doping against other forms of drug use in society. The outcomes and<br />

implications of this comparison establish the basis for a discussion of how<br />

doping might be dealt with by the relevant authorities. The concluding<br />

points show that interventions towards education and prevention face the<br />

challenges of understanding and responding to the highly specific nature<br />

of the elite athlete.<br />

INTRODUCTION<br />

High profile cases of sports stars using drugs, whether for<br />

performance or for ‘recreational use’ continues to plague the world<br />

of elite, international sport. A recent case in question is that of the<br />

American tennis star, Andre Agassi who recently admitted using<br />

crystal methamphetamine during his playing career (Agassi 2009).<br />

While such confessions are rare, we do know enough about specific<br />

instances of doping behaviour to surmise that it has been<br />

prominent in many sports. The most infamous of these have been<br />

the THG/Balco scandal (Fainaru-Wada and Williams 2006); the<br />

1998 Festina scandal during the Tour de France that exposed the<br />

systematic doping of professional cyclists (Voet 2002); the<br />

organized doping of Canadian athletes that led to Ben Johnson’s<br />

positive test after winning the 100m final during the 1988 Olympics<br />

(Francis and Coplon 1991); and the Government sponsored doping<br />

of athletes in the former GDR and USSR (Spitzer 2006). Less well<br />

1 Director of the program, University of Stirling, Scotland, United Kingdom


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

known, though are individual cases like Werner Reiterer who used<br />

steroids throughout the 1990s without ever being detected (Reiterer<br />

2000).<br />

Other cases have been more complex and show how<br />

challenging anti-doping policy and procedures can be. For<br />

example, when the Danish cyclist Michael Rasmussen was taken<br />

out of the 2007 Tour de France after a journalist exposed the fact he<br />

had missed out-of-competition tests, the scandal reverberated<br />

around the world. He was castigated as a cheat and once again the<br />

future of professional cycling was questioned. However, recent<br />

research has shown that he did not actually break any of the World<br />

Anti-Doping Agencies (WADA) rules and therefore has been<br />

harshly treated (Møller 2010). Another example might be that of<br />

Shoaib Akhtar and Mohammed Asif who tested positive for<br />

nandrolone in tests conducted by the Pakistan Cricket Board in<br />

2006. Their initial ban was over-turned on appeal leading to<br />

complaints from WADA and the involvement of the Court of<br />

Arbitration for Sport (CAS) which had no authority to impose<br />

WADA’s code at the time which would have upheld the bans<br />

(Cricinfo, July 2, 2007). The case also prompted the International<br />

Cricket Council to complain about ‘inconsistencies in the Pakistan<br />

Cricket Board’s anti-doping processes and regulations’ (London<br />

Evening Standard, 7 December 2006).<br />

Such cases reflect some of the other cases that have been<br />

adjudicated through the CAS, where there are very delicate<br />

judgements to be made over the punishments to be given for<br />

doping when athletes can provide circumstantial reasons for testing<br />

positive or for missing out-of-competition tests or when there are<br />

disputes over jurisdiction and variation in regulations (see<br />

McLaren 2001; Connolly 2006).<br />

Nonetheless, most doping scandals reveal the underlying<br />

assumptions of sports and ethics. Media coverage and general<br />

condemnations demonstrate the on-going concern many people<br />

30


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

have with the use of drugs in sport. The feeling remains<br />

widespread that sports men and women are role models for clean<br />

living and healthy lifestyles. Such a position is exemplified by<br />

Thomas Murray (2004), who claimed in the World Anti-Doping<br />

Agency’s in-house magazine that doping undercuts the foundation<br />

of what gives sport its meaning and value, the integrity of the<br />

athlete and the ethics of competition. While this is not necessarily a<br />

perspective shared by academic researchers (i.e. Kayser, Mauron<br />

and Miah 2007; Møller 2010) it is one that governs policy making<br />

agendas and shapes the scope for athletes’ decision-making.<br />

In this article, I wish to explore two distinct but related<br />

questions. The first is how drug use in sport can be seen as similar<br />

to and different from other forms of drug use. Following that, I<br />

want to outline some challenges facing education, prevention and<br />

policy decisions within sports organisations. Taken together these<br />

two questions open up some important and interesting themes<br />

about sociological and managerial aspects of doping and antidoping.<br />

COMPARATIVE CONTEXTS<br />

There are some obvious similarities between drug use within<br />

a sporting context and other social contexts. Sports stars are just as<br />

fallible as other people and can become addicted to drugs, leading<br />

to other forms of unhealthy behaviour. Such examples include the<br />

tragic Italian cyclist Marco Pantani who used both performanceenhancing<br />

and recreational drugs and who committed suicide in a<br />

hotel room after apparently severe depression (Rendell 2007). The<br />

connection between emotional and psychological problems and a<br />

reliance on drugs can affect people in all walks of life. Indeed, some<br />

of the earliest rationales for anti-doping policy in the 1960s referred<br />

directly to the ‘moral degradation’ associated with all forms of<br />

drugs (Dimeo 2007) and were connected, if loosely, to broader<br />

societal trends that sought regulation of tobacco, alcohol,<br />

31


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

amphetamines, cannabis and other drugs. While the past two to<br />

three decades have seen a distinction drawn between performanceenhancing<br />

and recreational drug use, research shows that some<br />

groups in society use steroids for body-image in order to pursue<br />

hedonistic lifestyles where recreational drugs are common (see<br />

Møller, McNamee and Dimeo 2009). In other words, while<br />

performance oriented athletes can become addicted to the relevant<br />

drugs, there are many examples where performance-enhancing<br />

drugs are also used in combination with other drugs.<br />

A second similarity is that drugs pose significant health risks.<br />

Many of the female athletes who were given male hormone drugs in<br />

the former East Germany suffered from a host of ill-effects including<br />

excess hair growth, excess sexual impulses, deepening voices, acne,<br />

masculinisation of skeletal features, psychological trauma,<br />

gynaecological problems and many had children born with<br />

deformities (Berendonk and Franke 1997; Ungerleider 2001). Some<br />

well known athletes have suffered from early deaths that have been<br />

linked, even if indirectly, to drug use. For example, the case of Birgit<br />

Driessel is described in horrific detail by John Hoberman (1992).<br />

More recent instances include that of Florence Griffith-Joyner and<br />

the number of professional cyclists who died soon after EPO became<br />

available as a performance enhancing drug (Noakes 2006). Although<br />

the full scale of fatalities, reduced mortality and the onset of serious<br />

illnesses related to doping are not known, there are enough forms of<br />

evidence and individual cases to suggest that athletes are taking<br />

serious risks with their health if they choose to use banned drugs<br />

(Mottram 2010). These risks are accentuated by the fact that athletes<br />

might overdose because they seek more of the performance<br />

enhancing effects, and that black market suppliers cannot be trusted<br />

to ensure products are not contaminated (Donati 2007).<br />

There are also many differences between the use of drugs by<br />

sports people and those used in everyday life. What is illegal in<br />

sport can be legal in society, while there are vital distinctions in<br />

32


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

sport between drugs that can be considered medical/therapeutic,<br />

those which are performance enhancing, and those which are used<br />

for recreational purposes. The first category might include pain<br />

relief drugs, anti-inflammatories, remedies for sickness or colds,<br />

and so on, which might be used by athletes to keep themselves fit<br />

and healthy. Some of these, like ephedrine are banned because they<br />

contain stimulants, while others might be abused, i.e. if an athlete is<br />

injured he/she should rest not take pain killers and keep playing.<br />

Moreover, the list of banned substances includes drugs which are<br />

not directly intended to boost performance but can be used to hide<br />

or ‘mask’ such drugs. So, for example, the Australian cricket Shane<br />

Warne was banned for one year in 2003 for taking diuretics<br />

hydrochlorothiazide and amiloride that are on the list because they<br />

can be used as masking agents (Independent, 22 February 2003). The<br />

second category includes steroids, EPO, growth hormone,<br />

amphetamines, blood doping and others; drugs that help athletes<br />

to improve their long or short term performances. Not all of these<br />

are banned: blood spinning is a complicated technique that aids<br />

recovery by replacement plasma cells but is not yet banned. The<br />

third category includes cocaine, heroin, cannabis and other social<br />

drugs that athletes are not supposed to take but will not enhance<br />

their performance.<br />

Perhaps the key difference between sports and the rest of<br />

society is the strict and highly definitive set of rules that have been<br />

laid down for athletes. There is an extensive list of banned<br />

substances controlled by WADA that grew out of the lists created<br />

and implemented in the 1960s and 1970s by such international sports<br />

organizations at the International Olympic Committee (Dimeo 2007).<br />

Indeed, the very existence of a single unifying organization that aims<br />

to ensure compliance and consistency of regulations and<br />

punishments makes sport almost unique in its approach to drug use.<br />

The punishments are severe: up to two year bans for infringements.<br />

Supporting this list is a testing mechanism that analyses competitors’<br />

33


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

urine and blood samples that they are compelled to prove when<br />

requested. Even more draconian is the surveillance system for outof-competition<br />

testing that – akin to bail conditions or being on the<br />

sex offenders register – requires the athlete to provide details of<br />

where they will be every day so that unannounced testing can take<br />

place. This has led to some concerns about civil liberties violations:<br />

‘This practice seriously impinges on personal privacy and is<br />

unacceptable in any other setting except, perhaps, imprisonment’<br />

(Kayser et al 2007: 2). Moreover, athletes are given the opportunity to<br />

miss three tests over 18 months before they face punishment. Some<br />

stringent anti-doping campaigners believe this to be too lenient,<br />

while liberalists do not consider the system to be morally correct. In<br />

between these positions are the athletes who feel under pressure to<br />

comply, but when they miss tests there is great uncertainty over<br />

whether they are being deliberately deceitful or it was due to a<br />

genuine accidental reason (Hanstad and Loland 2009).<br />

In other words, there is a complex, sophisticated, globalised<br />

system of policies, rules, and penalties that have come to present<br />

difficult legal situations where athletes’ careers and reputations are<br />

at stake. Associated with all of this is the highly complex scientific<br />

underpinning of testing athletes’ urine and blood samples, which<br />

has to be completed with absolute accuracy. There have been cases,<br />

such as that of the English track and field athlete Diane Modahl,<br />

where errors in the laboratory led to an accusation of doping which<br />

took years to refute and probably ended her career (McArdle 1999).<br />

As such, policy makers need to work in tandem with scientists in<br />

accredited anti-doping testing laboratories to ensure that the entire<br />

process is watertight. Moreover, as new types of performance<br />

enhancing drugs come on the market, scientific research can feed<br />

back into the policy process by informing decision makers about<br />

doping innovations. And yet, there are flaws in this system. Not all<br />

performance enhancing drugs can be identified in samples. There<br />

have been some concerns about issues such as the accidental<br />

34


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

contamination of legitimate drugs with illegitimate substances, the<br />

chances of false positives, and the lack of research into the effects of<br />

some drugs like EPO. One of the future threats in this regard is the<br />

use of genetic therapies which athletes have their genome structure<br />

altered to improve specific aspects of their bodies. McNamee<br />

discusses this in the context of wider societal trends towards<br />

‘transhumanism’ but argues there should be boundaries: the ‘denial<br />

of the necessity of limits in nature by some, the desire to … control<br />

human-limiting factors by the unfettered use of biotechnology is<br />

something that should concern us all in sport’ (2008:205).<br />

A finally difference is that most people in sport take a very<br />

uncompromising view on what is considered to be cheating when<br />

drugs are taken to improve performances. ‘Doping’ has often being<br />

referred to as an ‘evil’, a ‘death’, and a threat to the very fabric of<br />

sport (Dimeo 2007; Waddington 2000). Much of this type of<br />

discourse began when the Danish cyclist Knud Enemark Jensen<br />

crashed and died during a race in the 1960 Rome Olympics. For<br />

almost forty years it was assumed that his death was caused by<br />

overdosing on amphetamines. Even though this theory has been<br />

refuted (Møller 2005), it was highly influential in shaping policy<br />

and ideology on anti-doping that made drug use seem like a matter<br />

of life and death, and gave policy makers the role of protectors or<br />

saviours. For example, members of the International Olympic<br />

Committee have been very self-congratulatory about their role in<br />

leading anti-doping and often refer to the key people as having<br />

saved sport from destruction caused by unethical behaviour,<br />

cheating and risk to athletes’ health (Dimeo and Hunt 2009). There<br />

is a strict moral code that creates a dichotomy of self-righteous<br />

individuals on the side of ‘anti-doping good’ up against and trying<br />

to thwart those on the side of ‘doping, cheating, evil’. This contrasts<br />

with, for example, policies and moralities around alcohol where<br />

moderate use is widely regarded as acceptable and in many social<br />

35


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

circles excessive use is encouraged. The dividing lines in sport are<br />

much more distant and the punishments more severe.<br />

DEALING WITH THE PROBLEM<br />

There are some interesting consequences of these similarities<br />

and differences. The historical development of drug use in modern<br />

sport can be traced to the 1880s (Dimeo 2007). While this suggests<br />

there is some inherent about competitiveness that leads people to<br />

search out new techniques for winning, the circumstances and<br />

meanings attached to performance-enhancing drugs have changed<br />

over time. During the first half of the 20 th century, scientists and<br />

policy makers could not agree over what constituted ‘doping’ and<br />

how it should be controlled. Anti-doping statements were<br />

published by the IAAF in 1928 and the IOC in 1938, but these were<br />

not supported by a system of testing or punishment.<br />

It was during the 1960s that the international sports<br />

organisations took a more collective and systematic approach. This<br />

was in response to rising numbers of incidents involving drug use<br />

in certain sports such as cycling and the apparent (if unproven)<br />

widespread use of steroids in Olympic and other sports. Since then<br />

the suppliers and the testers have been locked in battle. When a<br />

new drug becomes available some athletes will experiment, so the<br />

testing procedures have to be constantly refined and updated. Most<br />

athletes who take drugs are seen as deliberately trying to cheat. The<br />

policy structures are akin to criminalisation, reminiscent of a ‘war<br />

on drugs’ approach rather than an empathetic one. Athletes are<br />

considered to be responsible for everything in their diet, and thus<br />

the legal concept of strict liability is applied by the World Anti-<br />

Doping Agency. There is very little legal scope for an athlete to<br />

offer an explanation as to how the banned substance came to be in<br />

their system (David 2008).<br />

All of which leads on to questions around the preventative<br />

measures of education and policy – how best might a system be<br />

36


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

develop to pre-empt cases of doping whether they are deliberate,<br />

accidental or the consequence of trusting the wrong people? It is vital<br />

that athletes are fully aware of all possible ways in which they might<br />

test positive, otherwise cases of ‘inadvertent’ doping will rise while<br />

the legal framework assumes guilt if an athlete tests positive.<br />

Despite the situation outlined above, little research has yet<br />

been conducted that explains how athletes learn about doping and<br />

anti-doping, and how sports agencies can ensure adequate levels of<br />

information and education. A recent systematic review of literature<br />

(Backhouse et al 2007) showed that only a handful of studies have<br />

been conducted about education and other forms of intervention<br />

and training. The authors argue that, ‘Existing research suggests<br />

that a considerable proportion of athletes lack doping knowledge,<br />

in terms of effects, legal issues or sources of information. This may<br />

increase their risk for damaging their health or inadvertently<br />

committing a doping offence’ (Backhouse et al 2007, p.27).<br />

This is highly significant in light of the application of strict<br />

liability. If athletes do not always know what is banned, what their<br />

legal rights are, or which sources of information can be trusted,<br />

then how they can always be held responsible for a positive test?<br />

An interesting example of such a situation arose in 2004 when the<br />

British tennis player Greg Rusedski tested positive for the banned<br />

substance nandrolone. It transpired that the Association of Tennis<br />

<strong>Prof</strong>essionals, the governing body for the sport, had recommended<br />

that their coaches distribute electrolyte tablets to some players that<br />

had been contaminated with small traces of the banned drug.<br />

During the legal case, the prosecutors tried to argue that ‘Rusedski<br />

could be held to be positive as he must be taken to have known that<br />

he should not take substances given to him by the ATP’ (BBC, 10<br />

March 2004). However, Rusedski’s innocence was upheld as he was<br />

assumed correct to have trusted the ATP who did not act in<br />

accordance with anti-doping guidelines. But given the strict<br />

37


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

liability ruling favoured by the World Anti-Doping Agency,<br />

Rusedski was fortunate to have avoided a two year ban.<br />

Education strategies that are currently in place are primarily<br />

about avoiding testing positive, clarifying some ‘grey areas’ and<br />

explaining the mechanisms of testing. Most of this material is<br />

available on-line and athletes are encouraged to access it for<br />

themselves. This is also problematic as a pedagogical technique; as<br />

it does not take account of the athlete’s willingness to read<br />

information carefully, their ability to understand, or their<br />

appreciation of its wider context. Indeed, it could be argued that<br />

the current provision is simplistic and one-dimensional. A rather<br />

more complex picture is painted by Backhouse et al:<br />

Elite athletes’ motives for doping are primarily concerned<br />

with maintaining of improving physical functioning, coping with<br />

social or psychological pressures or striving for social or<br />

psychological goals. Investigations of drug use amongst elite<br />

athletes should acknowledge that they are subject to unique social<br />

and psychological conditions, which distinguish them from other<br />

groups of athletes (intense pressure from sponsors, media,<br />

spectators; opportunities for huge financial reward); the<br />

combinations may increase the likelihood of doping. Accordingly,<br />

it is advisable that doping education and prevention initiatives<br />

should be tailored to the unique experience of being an elite athlete<br />

to ensure that athletes are properly equipped to deal with the<br />

pressures of high profile sport (2007, p27)<br />

The consequences are that information dissemination<br />

approaches to athlete education are not sufficient because they<br />

cannot address the situation or mind-set that would lead to doping<br />

as a conscious decision. Many athletes devote their entire lives to<br />

their career and are desperate for any form of success. They draw<br />

upon all manner of other coaching strategies, nutritional advice and,<br />

for certain sports, new technological innovations, in order to beat<br />

their opponents. The very concept that a potential advantage should<br />

38


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

be forgone for the sake of the idealised ‘level playing field’ is not<br />

within the logic of sports success. Since anti-doping is based on<br />

morally pure notions like fairness, equity and sportsmanship, there<br />

is a constant struggle between the concepts of purity and success in<br />

elite sport (Møller 2010). Even the language used reflects these<br />

tensions. To be ‘sporting’ means to show respect to your opponent,<br />

while the essence of sport is really about competition, trying to win,<br />

trying to display superiority over the opponent; winners are<br />

encouraged to feel proud and to celebrate, losers feel<br />

disappointment and shame. Elite sport, as noted by Backhouse et al<br />

(2007), contains so many external rewards that the balance often<br />

shifts towards a win-at-all-costs mentality.<br />

Any serious anti-doping education would need to address<br />

and explore athletes’ responses to these tensions. How do they<br />

understand sport? What are they trying to achieve? What moral<br />

limits would they place on performance enhancement? How do<br />

they imagine their competitors deal with moral issues?<br />

Donovan has suggested that athletes’ sense of morality<br />

(within sport) should be the touching point for anti-doping<br />

education, and the younger such an intervention can occur the<br />

better:<br />

The methods and examples would vary by age, but the level<br />

of sophistication should always be challenging rather than too<br />

easily grasped. Moral reasoning in sport should be taught through<br />

experiential methods of narrative and drama, as well as through<br />

logical reasoning and discussions. Providing “reasons why” is<br />

particularly important to support acceptance of desired moral<br />

stances at all ages … The primary focus should be on adherence to<br />

the rules, with clear moral reasoning as to how deliberate breaching<br />

of the rules to gain an unfair advantage over one’s competitors<br />

undermines the very basis of sport … in educational initiatives,<br />

athletes must be given more than a list of banned substances and<br />

39


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

technologies – they must be given good arguments for the bans and<br />

the opportunity to debate these arguments (2009, p.133)<br />

This does however have several weaknesses. Firstly, it<br />

assumes that athletes make all the decisions, whereas it may be the<br />

coach or team doctor who suggests ‘bending the rules’. Secondly,<br />

this would only be valid for potential instances of deliberate<br />

doping, but many positive tests are the results of human error.<br />

Thirdly, it is debatable if elite level athletes would priorities the<br />

moral aspects of sport over their desire for victory.<br />

An alternative model has been presented by Somerville and<br />

Lewis, after they conducted a research survey on British Olympians:<br />

This survey suggests that despite regular educational<br />

updates, some sportspeople are not fully prepared to avoid<br />

accidental doping violations. It is suggested that the educational<br />

process itself is altered to encourage a more proactive approach to<br />

doping prevention, with the development of individual<br />

contingency plans should minor illness arise. Improving access to<br />

information via the internet, and involving a pharmacist may help<br />

to reduce doping accidents. There is also a need to consider the<br />

educational requirements of team doctors (2005, p. 516)<br />

This is a much more pragmatic approach which makes no<br />

assumptions about the athletes’ moral position but does work on<br />

the basis that anti-doping education should be in place to protect<br />

the athletes from making mistakes. Clearly more research needs to<br />

be done to understand athletes of different ages, in different sports<br />

and at different performance levels. And more interactive training<br />

needs to be in place to teach athletes how to recognize and avoid<br />

risky situations.<br />

To conclude, the question of doping continues to be<br />

controversial and intriguing. There is much social science research<br />

still to be done. However, this article provided some comparative<br />

contexts, drew from a range of examples, and outlined the issues<br />

facing sports organizations as they aim to manage the problem.<br />

40


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

REFERENCES<br />

Agassi, A. (2009) Open: An Autobiography, London, HarperCollins<br />

Backhouse, S., McKenna, J., Robinson, S. and Atkin, A. (2007)<br />

International Literature Review: Attitudes, Behaviours,<br />

Knowledge and Education – Drugs in Sport: Past, Present and<br />

Future, Report for the World Anti-Doping Agency<br />

Berendonk, B. and Franke, W. (1997) ‘Hormonal doping and<br />

organization of athletes: a secret program of the German<br />

Democratic Republic’, Clinical Chemistry, 43 (7), 1262-1279<br />

BBC (2004) ‘Rusedski cleared’, 10 March<br />

Connolly, R. (2006) ‘Balancing the Justices in Anti-Doping Law: the<br />

need to ensure fair athletic competition through effective<br />

anti-doping programs vs. the protection of rights of accused<br />

athletes’, Virginia Sports and Entertainment Law Journal, 5 (2),<br />

161-200<br />

Cricinfo, July 2, 2007, ‘Court has no jurisdiction in doping case’<br />

David, P. (2008) A Guide to the World Anti-Doping Code: A Fight<br />

for the Spirit of Sport, Cambridge, Cambridge University<br />

Press<br />

Dimeo. P. (2007) A History of Drug Use in Sport, 1876-1976: Beyond<br />

Good and Evil, Routledge, London<br />

Dimeo, P. and Hunt, T. (2009) ‘Leading Anti-Doping in the IOC: the<br />

ambiguous role of Prince Alexandre de Merode’, Journal of<br />

Olympic History, 17 (1): 20-22<br />

Donati, A. (2007) World Traffic in Doping Substances, Report, can be<br />

accessed at: http://www.wada-ama.org/en/Anti-Doping-<br />

Community/Governments/Investigation--<br />

Trafficking/Trafficking/Donati-Report-on-Trafficking/<br />

Donovan, R. J. (2009) ‘Towards a Understanding of Factors<br />

Influencing Athletes’ Attitudes about Performance-<br />

41


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

Enhancing Technologies: Implications for Ethics Education’,<br />

in Murray, T. H., Maschke, K. J. and Wasunna, A. A. (eds)<br />

Performance-Enhancing Technologies in Sport: Ethical,<br />

Conceptual and Scientific Issues, Baltimore, John Hopkins<br />

Fainaru-Wada, M. and Williams, L. (2006) Game of shadows: Barry<br />

Bonds, BALCO, and the steroids scandal that rocked professional<br />

sports, London and New York, Gotham<br />

Francis, C. and Coplon, J. (1991) Speed Trap: Inside the Biggest Scandal<br />

in Olympic History, London, St. Martins<br />

Hanstad, D. V. and Loland, S. (2009) ‘Elite athletes’ duty to provide<br />

information on their whereabouts: Justifiable anti-doping<br />

work or an indefensible surveillance regime?’, European<br />

Journal of Sport Science, 9 (1): 3-10<br />

Independent, 22 February 2003, ‘Anti-doping tribunal bans Warne<br />

for 12 months’<br />

Kayser, B., Mauron, A. and Miah, A. (2007) ‘Current anti-doping<br />

policy: a critical appraisal’, BMC Medical Ethics, 8 (20): 1-10<br />

[published on-line only]<br />

Hoberman, J. (1992) Mortal Engines: the science of performance and the<br />

dehumanization of sport, New York, Free Press.<br />

Hoberman, J. (2005) Testosterone Dreams: rejuvenation, aphrodisia,<br />

doping, Berkeley, California, University of California Press.<br />

London Evening Standard, 7 December 2006, ‘ICC Critical of<br />

Pakistan’s anti-doping policy’<br />

McArdle, D (1999) ‘Elite athletes’ perceptions of performanceenhancing<br />

drug use’, Journal of Legal Aspects of Sport, 9(1): 43-55.<br />

McLaren, R. H. (2001) ‘The Court of Arbitration for Sport: an<br />

independent arena for the world’s sports disputes’,<br />

Valparaiso University Law Review, 35, 379-405<br />

McNamee, M. (2008) Sports, Virtues and Vices: morality plays,<br />

London and New York, Routledge<br />

42


UNDERSTANDING AND MANAGING DRUGS IN SPORT<br />

Møller, V. (2005) ‘Knud Enemark Jensen’s Death During the 1960<br />

Rome Olympics: A Search for Truth?’, Sport in History, 25 (3):<br />

452-471.<br />

Møller, V. (2010) The Ethics of Doping and Anti-Doping: Redeeming the<br />

Soul of Sport?, London and New York, Routledge<br />

Møller, V. McNamee, M. and Dimeo, P. (2009) Eds. Elite Sport,<br />

Doping and Public Health, Odense, University of Southern<br />

Denmark Press<br />

Mottram, D. (2010) Drugs in Sport, 5th Ed., London and New York,<br />

Routledge<br />

Murray, T. (2004) ‘The Athlete’s Challenge: Drugs, Sport and<br />

Ethics’, Play True Magazine, (3), 6-7, World Anti-Doping<br />

Agency, Vancouver<br />

Noakes, T. (2006) ‘Should We Allow Performance-Enhancing Drugs<br />

in Sport? A Rebuttal to the Article by Savulescu and<br />

Colleagues’, International Journal of Sports Science & Coaching,<br />

1 (4): 289-316<br />

Rendell, M. (2007) The Death of Marco Pantani: A Biography, <strong>Ph</strong>eonix<br />

Somerville, S. J. and Lewis, M. (2005) ‘Accidental breaches of the<br />

doping regulations in sport: is there a need to improve the<br />

education of sportspeople?’, British Journal of Sports Medicine,<br />

vol. 39, pp. 512-516<br />

Spitzer, G. (2006) ‘Ranking Number 3 in the World: How the<br />

Addiction to Doping Changed Sport in the GDR (East<br />

Germany)’ in Spitzer, G. Ed. Doping and Doping Control in<br />

Europe, Oxford, Meyer & Meyer<br />

Ungerleider, S. (2001) Faust’s Gold: inside the East German doping<br />

machine, New York, Thomas Dunne<br />

Voet, W. (2002) Breaking the Chain: Drugs and Cycling the True Story,<br />

Yellow Jersey Press, London<br />

43


EFFECT OF PROGRESSIVE MUSCLE RELAXATION<br />

TRAINING ON COMPETITIVE ANXIETY OF MALE<br />

INTER-COLLEGIATE VOLLEYBALL PLAYERS<br />

Dr. B. Navaneethan 1 and R. Soundara Rajan 2<br />

ABSTRACT:<br />

The present study is mainly concerned with volleyball players who<br />

participated in the high level competition. Now days, the Game volleyball<br />

is becoming as a professional sport rather than the competitive sport. So<br />

the competitiveness among the volleyball players is growing up day by day<br />

with different color. Reason for such competitiveness arises naturally<br />

among the players, because of pressures such as equal competition,<br />

concern about fulfilling the expectation of their teachers, coaches, parents<br />

and peer group and personal needs. The present study investigated the<br />

effect of psychological skill training techniques such as progressive muscle<br />

relaxation on competitive anxiety. The three sub-scales of competitive<br />

anxiety were also examined; cognitive anxiety, somatic anxiety and selfconfidence.<br />

The study consisted of 24 male volleyball players from PSG<br />

College of Arts and Science, Coimbatore. Their age ranged from 18 to 25<br />

years. The Competitive State Anxiety Inventory-2 (CSAI-2), also<br />

developed by Martens, Vealey, & Burton (1990) were used. Subjects were<br />

randomly assigned to either a relaxation training experimental group, or a<br />

no relaxation training control group. Both the experimental groups were<br />

given training for 3 days a week and for 6 weeks in total. Paired t-tests<br />

were used to test the effect of treatment groups individually between pre<br />

and post –tests of all the groups on variables used in the present study.<br />

The result of the study reveals that there was significant difference in 0.05<br />

levels of competitive anxiety among the male inter-collegiate volleyball<br />

players.<br />

Key words: Relaxation training, competitive anxiety<br />

1 Director of <strong>Ph</strong>ysical Education, PSG College of Arts & Science, Coimbatore, India<br />

2 Assistant <strong>Ph</strong>ysical Director, PSG College of Arts & Science, Coimbatore, India


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

INTRODUCTION<br />

The present study is mainly concerned with volleyball<br />

players was participated in the high level competition. Now days,<br />

the game volleyball is becoming as a professional sport rather than<br />

the competitive sport. So the competitiveness among the volleyball<br />

players is growing up day by day with different color. Reason for<br />

such competitiveness is arise naturally among the players, because<br />

of pressures such as equal competition, concern about fulfilling the<br />

expectation of their teachers, coaches, parents and peer group and<br />

personal needs. It leads to mental and physical stress. In high level<br />

stress, the player’s vision may have to be narrow and could not<br />

understand the things around them. Hence having the high level<br />

stress, players are unable to show their real effort in matches<br />

though they are having the needed physical and mental resources.<br />

Hence the physical education teachers and coaches are in need to<br />

study the means and methods needed to face such competitive<br />

pressures whereby they can equip their players to perform well. As<br />

far as means and methods for high performance in sports are<br />

concerned, they are varied with the nature and type of competition<br />

such as low level competition and high level competition. In high<br />

level competition, sport is demanding high level mental toughness.<br />

Mental toughness of a player can be strengthened only through the<br />

implication of cognitive based training. Cognitive based training<br />

helps them to realize the nature of internal and external pressures<br />

whereby they can easily face the competitive pressures and to show<br />

their talents in time. Having this thirst, the investigator has<br />

impelled to study.<br />

The impact of anxiety on sport performance has become an<br />

interest in the field of Sport Psychology within the last decade.<br />

Performance related anxiety, also referred to as competitive a-state<br />

anxiety composed of three states. The cognitive a-state is<br />

responsible for cognitive concerns such as worry and negative<br />

expectations about oneself or one's performance. The somatic a-<br />

45


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

state accounts for autonomic arousal such as muscle tension and<br />

increased heart rate. High levels of either cognitive a-state or<br />

somatic a-state negatively effect state self-confidence. Overall,<br />

competitive a-state anxiety is defined as an emotional response to<br />

an unpleasant stimulus.<br />

Typical responses to an anxiety provoking stimulus include:<br />

muscle tension, increased breathing, and decreased concentration.<br />

It has been suggested that athletes are prone to experience this<br />

negative emotion for two reasons. First, they frequently find<br />

themselves in situations in which others can assess their success or<br />

failure. Second, the degree of success achieved by an athlete is<br />

measurable by goals such as distance, scores, or time. Furthermore,<br />

an examination of sport competition literature exemplifies the<br />

causes of competitive a-state anxiety. Some of the commonly cited<br />

causes include fear of failure, ego threat/fear of evaluation, and<br />

poor preparation or lack of perceived physical readiness.<br />

Generally, both psychological and physiological ramifications<br />

reveal the athlete's response to anxiety.<br />

In addition, studies have indicated that a reduction in<br />

competitive a-state anxiety may enhance athletic performance.<br />

Recently, the emphasis placed on the psychological aspect of<br />

athletics has exhibited psychological skill training to be equally<br />

important as physical training. Psychological skill training such as<br />

relaxation training can be used to lower both somatic anxiety and<br />

cognitive anxiety. Hence, such a training method can be<br />

implemented to reduce competitive anxiety and in turn, enhance<br />

athletic performance (Onestak, 1991). Moreover, relaxation<br />

techniques include: progressive muscle relaxation that is induced<br />

by instructions to tense and relax major muscle groups of the body;<br />

deep breathing which ensures calm respiration; and visualization<br />

techniques (Jacobson, 1938). The purpose of relaxation strategies is<br />

to allow the athlete to decrease anxiety prior to performance and in<br />

turn, reach his or her full athletic potential (Onestak, 1991).<br />

46


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

Previous research explored the effect of various relaxation<br />

training techniques on competitive a-state anxiety and<br />

performance. Anshel and Porter (1996), Bethany and Forrest (1998),<br />

and Savey and Beital (1997) have demonstrated further collective<br />

evidence that the application of psychological skill training<br />

programs can reduce competitive a-state anxiety as well as improve<br />

athletic performance. For example, Bethany and Forrest (1998)<br />

found that visuo-motor behavioral rehearsal, when employed by<br />

athletes can decrease stress and state anxiety. In support of this<br />

finding, Anshel and Porter (1996) also found that athletes who<br />

employed stress management techniques expressed better athletic<br />

performance. Future research may extend the examination and see<br />

exactly which sub-scale, somatic anxiety, cognitive anxiety and selfconfidence<br />

is most effected by the psychological skill training.<br />

In consideration of the previous evidence that psychological<br />

skill training can reduce competitive anxiety, the present study will<br />

further investigate the impact of progressive muscle relaxation, a<br />

type of psychological skill training, on a-state competitive anxiety<br />

with an emphasis on the three sub-levels of competitive anxiety.<br />

Cognitive anxiety, somatic anxiety and state self-confidence will be<br />

examined. It will be beneficial to test if in fact, psychological skill<br />

training such as relaxation training lowers competitive anxiety and<br />

if so, which of the three sub-scales are most effected.<br />

Moreover, the present study will examine competitive anxiety<br />

and the impact of relaxation training. The variable being manipulated<br />

is the relaxation training, which is defined as progressive muscle<br />

relaxation. Progressive muscle relaxation generates relaxation by<br />

systematically progressing through skeletal muscles. The variables<br />

being measured are the subject's trait anxiety level, competitive<br />

anxiety level and the three sub-levels of state anxiety: somatic anxiety,<br />

cognitive anxiety, and state self-confidence.<br />

47


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

METHODS<br />

The purpose of the study was to find out the effect of<br />

progressive muscle relaxation training on competitive anxiety of<br />

male inter-collegiate volleyball players. To achieve the purpose of<br />

the study twenty four male volleyball players were selected from<br />

PSG College of Arts and Science, Coimbatore. Their age was<br />

ranged from 18 to 25 years. The purpose of the present study was<br />

explained to them clearly where by their consent to serve as<br />

samples were obtained. The present study is an experimental one<br />

and to test the effects of varied forms of intervening strategies, the<br />

care was taken in distributing the samples to each experimental<br />

group. For this, the selected samples (N=24) were divided into<br />

two equal groups. Group I was considered as Progressive<br />

Relaxation Training Group (PRTG) in which they underwent<br />

progressive muscle relaxation practices. Group II was considered<br />

as control group they are doing the regular physical & skill<br />

practice. The experimental group were given training for 3 days a<br />

week and for 6 weeks in total.<br />

RESEARCH INSTRUMENT<br />

TOOL USED IN THE STUDY<br />

Competitive Sport Anxiety Inventory - 2<br />

Competitive state anxiety was assessed by using the<br />

Competitive State Anxiety Inventory - 2 (CSAI-2, Martens et al.<br />

1990) which is a self report, psychometric state anxiety inventory,<br />

consisting of 27 items. The CSAI-2 normally takes less then five<br />

minutes to complete and was administered ten minutes before<br />

competition and practice session. Before allowing subjects to begin<br />

completing the CSAI-2, instructions were explained, and<br />

researchers ensured that all instructions were completely<br />

understood. State anxiety was measured by the Competitive State<br />

Anxiety Inventory - 2 (CSAI - 2) (Martens et al 1990). The CSAI – 2<br />

48


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

assess two components of state anxiety, cognitive worry and<br />

somatic anxiety, and a related constricts self-confidence.<br />

The CSAI - 2 contains 9 items that represent each sub - scale.<br />

Thus, each sub - scale has a range from 9 to 36. Higher scores on<br />

cognitive and somatic anxiety indicate higher levels of anxiety<br />

whereas higher scores on self – confidence sub – scale correspond<br />

to higher levels of self-confidence (Martens et al. 1990 and Mckay et<br />

al. 1997).<br />

Description of CSAI-2<br />

The CSAI was revised to develop a sport –specific inventory<br />

that measured the cognitive and somatic components of A-state.<br />

The CSAI –2 was originally constructed to include subscales to<br />

measure not only cognitive state anxiety and somatic anxiety but<br />

also fear of physical harm and generalized anxiety. The<br />

development of the CSAI-2 as a sport-specific measure of<br />

multidimensional A-state followed a systematic Psychometric<br />

process. The CSAI-2 is an A-state inventory designed to measure<br />

existing state of cognitive state anxiety, somatic state anxiety,<br />

and state of self confidence in competitive situations,. The CSAI-2<br />

was constructed primarily as research tool. It was administered<br />

three hour before competition. When administering the CSAI-2, it<br />

was recommended that the title on the form given to the subjects to<br />

be Illinois self-evaluation questionnaire. This technique helps to<br />

reduce the bias to the inventory. In addition antisocial instructions<br />

given by author of CSAI-2 was committed to memory and orally<br />

communicated with conviction to the respondents. Before allowing<br />

subjects to begin completing the CSAI-2 it was made sure that<br />

whether the instructions are completely understood and<br />

particularly that responses should be based on how the respondent<br />

feels at the moment.<br />

49


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

Scoring the CSAI-2<br />

The CSAI – 2 is scored by computing a separate total for<br />

each of the three subscales with scores ranging from a low of 9<br />

to a high of 36. The higher the score, the greater the cognitive or<br />

somatic. A-state or the greater the state self-confidence. Total score<br />

for the inventory is not computed.<br />

The cognitive state anxiety is scored by totaling the<br />

responses for the following 9 items 1, 4, 7, 10, 13, 16, 19, 22 and 25.<br />

The somatic state anxiety subscale is scored by adding the<br />

responses to the following 9 items: 2, 5, 8, 11, 14, 17, 20, 23 and 26.<br />

Scoring for item 14 must be reversed in calculating the score for the<br />

somatic state anxiety subscale as indicated below:<br />

1 = 4<br />

2 = 3<br />

3 = 2<br />

4 = 1<br />

The state self-confidence subscale is scored by adding the<br />

following items 3, 6, 9, 12, 15, 18, 21, 24, and 27. Inventories that are<br />

missing no more than one response per subscale can still be scored,<br />

but any inventory in which two or more items from any one<br />

subscale are emitted should be invalidated. To obtain subscale<br />

scores when an item has been omitted, compute the mean item<br />

score for the eight answered items, multiply this value by 9, and<br />

then round the product to the nearest whole number.<br />

Reliability of Data<br />

The reliability of data was ensured by establishing the<br />

instrument reliability, tester reliability, tester competency, and<br />

reliability of tests.<br />

Instrument Reliability<br />

The instruments used in this study were stop watches and<br />

measuring tape which were used to gather data for this study were<br />

obtained from standard firms. Data were collected thrice by using<br />

the said instruments. On all occasions, the measurements showed<br />

50


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

the same reading, and therefore the instruments were considered<br />

reliable.<br />

Tester Competency and Reliability of Tests<br />

To ensure that the investigator was well versed with the<br />

techniques of conducting the tests, the investigator had a number of<br />

practice sessions in testing procedure. The reliability of the data<br />

was established through test and retest method.<br />

Tester reliability was established by a test process whereby a<br />

consistency of results was obtained by product moment correlation.<br />

The data collected from a randomly selected sample of ten subjects<br />

in test was correlated with the data taken by the expert and<br />

coefficient of correlation thus obtained is presented in Table 1.<br />

Since very high correlations from .806 to .897 were obtained for the<br />

variables, the competency of the tester to administer the test was<br />

accepted. The intraclass correlation coefficient obtained from<br />

selected criterion variables were presented in Table-1<br />

Table-1<br />

INTRACLASS CORRELATION CO-EFFICIENT VALUES ON<br />

SELECTED CRITERION VARIABLES<br />

COEFFICIENT<br />

SI.NO CRITERION VARIABLES<br />

OF<br />

CORRELATIONS<br />

COMPETITIVE SPORT ANXIETY INVENTORY-2<br />

a) cognitive anxiety .897<br />

b) somatic anxiety .860<br />

c) self confidence .806<br />

Progressive relaxation Training<br />

The volleyball players were comfortable with the breathing<br />

technique. It is systematic technique developed by Jacobson. A<br />

volleyball player is asked to inhale and tense a specific muscle<br />

51


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

group for approximately 7 – 10 seconds followed by releasing them<br />

for 15 – 20 seconds. The volleyball player then exhales and releases<br />

the tension from the specified muscle group, concentrating on the<br />

feelings of relaxation. This procedure is repeated for a number of<br />

muscle groups with each group begin tensed and relaxed three<br />

times. The muscle groups used with the volleyball team are listed<br />

below:<br />

The Muscle groups used in the Progressive Relaxation Exercise<br />

Muscle Group Instructions<br />

Hand Clench your left hand and feet the<br />

tension relax and let hand hang loosely.<br />

Same for right hand.<br />

Wrists Bend hand back, hyper extending your<br />

wrists relax.<br />

Upper arms Bend elbow towards your shoulders<br />

and tense biceps muscle relax.<br />

Shoulders Bring shoulders up toward yours ears.<br />

Relax, let your shoulders drop down.<br />

Forehead Wrinkle your forehead, raise your<br />

eyebrows relax.<br />

Eyes Close your eyes tightly relax.<br />

Jaws Clench your jaws tightly relax.<br />

Tongue Press your tongue against the roof of<br />

your mouth relax.<br />

Mouth Press your lips together tightly relax.<br />

52


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

Neck Turn your head so that your chin is over<br />

your right shoulder. Straighten and<br />

relax.<br />

Neck and Jaws Bend your head forward, pressing your<br />

chin against your chest. Straighten and<br />

relax.<br />

Chest Take a deep breath and hold it for 5<br />

seconds, slowly exhale and relax.<br />

Abdomen Tighten your stomach muscles relax.<br />

Back Arch your back relax.<br />

Thighs Stretch your legs in front of you. Tighten<br />

your thigh muscles relax.<br />

Hamstrings Push your heels down into floor, tighten<br />

your hamstring muscles relax.<br />

Calves Point your toes toward your head relax.<br />

Feet Curl your toes toward the bottom of<br />

your feet relax.<br />

RESULTS<br />

The study was designed to find out the effects of progressive<br />

muscle relaxation training on competitive anxiety of male intercollegiate<br />

volleyball players. The objective framed in the present<br />

study to test the data collected on variables: cognitive anxiety,<br />

somatic anxiety and self confidence. As one of the objectives of the<br />

present study was to test the effects of progressive muscle<br />

relaxation training on competitive anxiety, the initial test means<br />

and final test means were tested treatment wise by using the paired<br />

sample t-test. SPSS 13.0 statistical package.<br />

53


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

TABLE-1<br />

Significance of Mean Gains / Losses between Pre and Post Test<br />

of Progressive Relaxation Training (PRTG) on Competitive<br />

Anxiety of Volleyball Players<br />

Variables<br />

Pre-test<br />

Mean<br />

Post-test<br />

Mean<br />

Mean<br />

Diff.<br />

Standard<br />

Error Mean<br />

‘t’-ratio<br />

Cognitive Anxiety 21.50 20.08 1.42 .148 9.53*<br />

Somatic Anxiety 22.08 20.50 1.58 .148 10.65*<br />

Self Confidence 21.25 22.75 -1.50 .151 9.95*<br />

* Significance at 0.05 level<br />

Table – 1 indicates that the obtained ‘t’ ratios were: 9.53 for<br />

cognitive anxiety, 10.65 for somatic anxiety, 9.95 for self confidence.<br />

The obtained ‘t’ ratios on competitive anxiety. When compared with<br />

the critical value of 2.201 for degrees of freedom of 111 it was found<br />

that the mean gains and mean losses statistically significant. Resulting<br />

of these confirm that six week practice of progressive relaxation<br />

training produced a significant improvement in cognitive anxiety<br />

(1.42; p


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

TABLE-2<br />

Significance of Mean Gains / Losses between Pre and Post Test<br />

of Control Group on Competitive Anxiety of Volleyball Players<br />

Variables<br />

Pre-test<br />

Mean<br />

Post-test<br />

Mean<br />

Mean<br />

Diff.<br />

Standard<br />

Error Mean<br />

‘t’-ratio<br />

Cognitive Anxiety 21.15 20.85 0.30 .923 1.45<br />

Somatic Anxiety 21.25 20.85 0.40 .233 1.71<br />

Self Confidence 21.50 21.75 -0.25 .910 1.22<br />

Table – 2 indicates that the obtained ‘t’ ratios were: 1.45 for<br />

cognitive anxiety, 1.71 for somatic anxiety, 1.22 for self confidence.<br />

The obtained ‘t’ ratios on competitive anxiety. When compared<br />

with the critical value of 2.201 for degrees of freedom of 111 it was<br />

found that the mean gains and mean losses statistically not<br />

significant. Resulting of these confirm that so it was found that the<br />

control group did not show significant improvement in cognitive<br />

anxiety (0.30; p>0.05), somatic anxiety (0.40; p>0.05), self confidence<br />

(-0.25; p>0.05), statistically not significant.<br />

Bar diagram showing that the pre teat and post test means of<br />

control group on competitive anxiety<br />

55


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

DISCUSSION ON FINDINGS<br />

The purpose of the present study was to examine if<br />

progressive muscle relaxation decreased competitive anxiety, and if<br />

so, which of the three sub-scales: cognitive anxiety, somatic anxiety,<br />

and self-confidence were most effected by the training. The only<br />

statistically significant effects found between the experimental<br />

group and the control group occurred on the cognitive anxiety,<br />

somatic anxiety and self confidence sub-scale of competitive<br />

anxiety. The competitive anxiety of the subjects was tested first<br />

producing no statistical significant effects between the<br />

experimental and control group. Although, previous research<br />

suggests that various relaxation training techniques, including<br />

progressive muscle relaxation, decrease full-scale competitive astate<br />

anxiety (Bethany & Forrest, 1998), the results of the present<br />

study did not confirm these observations. The Competitive State<br />

Anxiety Inventory (CSAI-2) (Martens, Vealey, & Burton, 1990)<br />

produced no statistical significance for the overall a-state anxiety<br />

levels between the relaxation training experimental group (group 1)<br />

and the no training control group (group 2). However, the mean<br />

scores of trait and state for group I exhibited a greater decrease<br />

from competitive anxiety. There are several reasons for the lack of<br />

statistical significance between the groups. Originally, the subject<br />

pool contained 24 subjects. Other limitations of the present study<br />

pertained to a restricted form of psychological skill training.<br />

The findings of this case are supported with the theoretical<br />

construct of Jacobson (1938). According to him Progressive muscle<br />

relaxing of various muscle groups although the exercise is a<br />

relaxation technique, we start with anxiety because most<br />

individuals find it easier to go from a tensed state to a relaxed state<br />

then they muscles. Progressing from a tensed state to relaxation<br />

also helps to develop the ability to recognize and differentiate the<br />

feelings of tension and relaxation in the muscles. Relaxation<br />

56


EFFECT OF PROGRESSIVE MUSCLE RELAXATION TRAINING<br />

improves alertness and awareness in such a way that the<br />

performance will be maximized. In short, learning to hang loose in<br />

all situations is talking one giant step towards playing at<br />

consistently high levels at or near potential performance.<br />

CONCLUSION<br />

From the results of comparative effect among the<br />

progressive relaxation training, and control group on criterion<br />

variables, it was concluded that players belong to progressive<br />

relaxation training is performed better in cognitive anxiety, somatic<br />

anxiety and self confidence as compared to control group.<br />

REFERENCES<br />

1. Anshel, M., & Porter, A. (1996). Self-regulatory<br />

characteristics of competitive swimmers as a function of skill<br />

level and gender. Journal of Sport Behavior, 1 2), 91.<br />

2. Bethany, L., & Forrest, S. (1998). Effects of self-administered<br />

visuo-motor behavioral rehearsal on sport performance of<br />

collegiate athletes. Journal of Sport Behavior, 21(2), 206.<br />

3. Broucek, M., & Bartholomew, J. (1993). The effects of<br />

relaxation with a warning cue on pain and tolerance. -<br />

Journal of Sport Behavior, 16(4), 239.<br />

4. Fisher, C., & Zwart, E. (1982). Psychological analysis of<br />

athletes' anxiety responses. Journal of Sport Psychology, 4.<br />

139-158.<br />

5. Jacobson, E., (1938). Progressive relaxation. Chicago, IL:<br />

University of Chicago.<br />

6. Martens, Vealey, & Burton (1990). Competitive State Anxiety<br />

Inventory-2 (CSAI-2). Champaign, IL: Human Kinetics<br />

Publishers.<br />

7. Onestak, D. (1991). The effects of progressive relaxation,<br />

mental practice and hypnosis on athletic performance: A<br />

review. Journal of SM Behavior, 1 4), 247.<br />

57


A PROTOCOL AND COMPARATIVE NORMS FOR THE<br />

IDENTIFICATION AND SELECTION OF TALENT AMONG<br />

ELITE AGE-GROUP RUGBY PLAYERS IN SOUTH AFRICA<br />

Dr. Pieter E. Krüger 1 , Conrad Booysen 2 , and Dr. Emanuel J. Spamer 3<br />

ABSTRACT<br />

In South Africa and around the world, sporting bodies concern<br />

themselves with the identification and development of potentially successful<br />

sports players. Rugby union is one of the most prominent sport types in which<br />

South Africa has achieved great success, both historically and currently. There<br />

have been a number of studies on talent identification in rugby and this study<br />

has attempted to further contribute to that body of knowledge. Therefore, the<br />

aim of this study was to develop reviewed and alternative sport and positionspecific<br />

testing protocols as well as comparative results for identification and<br />

selection in elite age-group rugby union. The sample group consisted of the<br />

2008 Blue Bulls Vodacom Cup and U/21 rugby squad (n=24), the 2008 South<br />

African U/21 rugby squad (n=26) and the 2008 TUKS Rugby Academy<br />

squad (n=22). These squads were divided into the positional groupings of tight<br />

forwards, loose forwards and backs. New and modified talent and ability tests<br />

were successfully established, e.g. 3 x 5 x 22 m anaerobic capacity test, the Stest<br />

(passing accuracy) and the kick for distance and accuracy test. These tests<br />

were modified from pre-existing tests that have long been the mainstay of talent<br />

identification in rugby union in South Africa and made up part of the broader<br />

modified protocol consisting of anthropometric, physical-motor and rugbyspecific<br />

skills. Furthermore, a sport-vision aspect to testing was also<br />

successfully incorporated. It can, therefore, be concluded that this study makes<br />

a meaningful contribution towards the identification and selection of those<br />

currently involved or capable of future success in elite age-group rugby union<br />

through the provision of a robust test protocol and comparative results that can<br />

serve as an alternative identification and selection tool.<br />

Key words: Rugby, sustainability, successful, identification, development,<br />

selection, anthropometric, physical-motor, rugby-specific, sport-vision<br />

1 Department of Biokinetics, Sport and Leisure Sciences, University of Pretoria, Pretoria, South Africa<br />

2 Department of Biokinetics, Sport and Leisure Sciences, University of Pretoria, Pretoria, South Africa<br />

3 School for Continuing Teachers' Education, North-West University, Potchefstroom, South Africa


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

INTRODUCTION<br />

While the true origins of rugby union remain unclear (Smith,<br />

2006), the first official international rugby match can be traced back<br />

to the game between Scotland and England in 1871 (Smith, 2006;<br />

Quarrie & Hopkins, 2007). Since this landmark match, rugby union<br />

has undergone change. From the player number reductions of 1875<br />

(Evert, 2006; Smith, 2006) to the law modifications of more recent<br />

years (Evert, 2006; Quarrie & Hopkins, 2007), rugby union is<br />

undoubtedly attempting to make the game more attractive to a<br />

larger target market (Evert, 2006). South Africa’s own entry to the<br />

international rugby arena occurred in 1891 in the series against the<br />

British tourists (Evert, 2006; Smit, 2007). From that time onwards,<br />

South Africa has been regarded as one of the strongest rugby<br />

playing nations in the world (Evert, 2006; Unknown Author, 2007)<br />

and is currently the reigning IRB rugby world champion.<br />

South Africa is understandably concerned with maintaining<br />

and sustaining this success, and has been for some time now, not<br />

just in rugby but most sports. As far back as the early 1990s and<br />

coinciding with South Africa’s readmission to world sport, the<br />

study of Du Randt (1992) provided ground-breaking findings and<br />

recommendations pertaining to talent identification and<br />

development in sport worldwide and made further<br />

recommendations for the unique South African context.<br />

Subsequent to this publication, the pioneering research of Pienaar<br />

and Spamer (1995) in Pienaar and Spamer (1998), Pienaar and<br />

Spamer (1996a, 1996b, 1998), Pienaar et al. (1998, 2000) and Hare<br />

(1999) in the same field of talent identification and development,<br />

but focused primarily on rugby union, has made valuable<br />

contributions to furthering the knowledge base and know-how<br />

needed to successfully pursue this goal of sustainability of success.<br />

These studies utilised a multivariate approach to talent<br />

identification. This approach was adopted, since successful<br />

participation in rugby requires sufficient ability in various<br />

59


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

components. Van Gent and Spamer (2005) list these components as<br />

being those of rugby-specific, anthropometric and physical-motor<br />

requirements. In the more recent studies of Spamer and Winsley<br />

(2003a; 2003b), Van Gent (2003), Van Gent and Spamer (2005), Plotz<br />

and Spamer (2006) and Spamer and De la Port (2006) on rugby union,<br />

the continued successful implementation of this approach is noted.<br />

With this background as guidance, the purpose of this study was to<br />

develop a measuring or analysis tool (with associated norms for<br />

future comparison) that can be implemented to both identify and<br />

select those age-group players who possess current ability or the<br />

potential to be promoted to higher honours. Another purpose was to<br />

make this tool as sport- and position-specific as possible.<br />

METHODOLOGY<br />

Following an exhaustive literature review in conjunction<br />

with an interviewing process incorporating successful national and<br />

international level coaches and conditioning experts, a protocol was<br />

developed for the purposes of testing. The sample group consisted<br />

of the 2008 Blue Bulls Vodacom Cup and U/21 rugby squad (n=24),<br />

the 2008 South African U/21 rugby squad (n=26), and the 2008<br />

TUKS Rugby Academy squad (n=22). The ages of the players<br />

ranged between 18 and 25 years old.<br />

These player squads were divided into the positional groupings of<br />

tight forwards, loose forwards and backs. The precedent for this division of<br />

playing positions was created by Van Gent (2003) and Van Gent and<br />

Spamer (2005) who initially assigned the players to the positions of tight<br />

forwards (props, hookers, locks), loose forwards (flankers and eighth men),<br />

halves (scrum-halves and fly-halves) and backline players (centres, wings<br />

and fullbacks). For this present study the decision was made to preserve the<br />

tight and loose forward groupings as in the previous studies, but to<br />

incorporate the halves and backline players into one global grouping as<br />

noted earlier. The primary reason for this was the elite nature, and therefore<br />

the associated scarcity, of the sample group. This necessitated maintaining<br />

larger groupings for more meaningful norms and scores.<br />

60


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

The final testing protocol consisted of the following:<br />

(i) Anthropometric measurements that included: 1) body<br />

mass and body height/stature (Norton et al., 1996; Van<br />

Gent, 2003) and 2) body fat percentage utilising the foursite<br />

system of skinfold measurement (Durnin &<br />

Womersley, 1974; Hazeldine & McNab, 1991).<br />

(ii) <strong>Ph</strong>ysical-motor measurements that incorporated 1) vertical<br />

jump (Harman et al., 2000); 2) 10/40 m dash (Hazeldine &<br />

McNab, 1991); 3) T-test (Harman et al., 2000) and 4) the 3 x<br />

5 x 22 m anaerobic capacity test (self-devised and modified<br />

from the 10 x 22 m shuttle run test of Krüger et al., 2001).<br />

(iii) Rugby-specific, self-devised tests consisting of 1) the S-test<br />

(self-devised and modified from the (a) pass for accuracy<br />

over 4 m and (b) the catching while moving forward tests of<br />

Pienaar and Spamer (1995) in Pienaar and Spamer, 1998)<br />

and 2) the combination kick for distance and accuracy test<br />

(self-devised and modified from the kick for distance test of<br />

Pienaar and Spamer (1995) in Pienaar and Spamer, 1998).<br />

(iv) Finally, sport-vision tests consisting of 1) the<br />

Accuvision1000 30 accurate lights in total time test (Venter<br />

& Maré, 2005; Du Toit et al., 2006).<br />

Descriptive statistics (mean, standard deviation, minimum<br />

and maximum scores for each measurement per group) were<br />

determined for the group. Inferential statistical analysis (Kruskal-<br />

Wallis one-way analysis of variance) was also performed on the<br />

data, where possible.<br />

RESULTS AND DISCUSSION<br />

The results of each component are firstly presented in table<br />

form, followed by a brief discussion of these tabulated findings.<br />

A. Anthropometric component<br />

From the results of table 1 the following can be said:<br />

61


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

There were statistically significant differences (p


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

B. <strong>Ph</strong>ysical-motor component<br />

From tables 2 and 3, the results can be interpreted as follows:<br />

Although the tight forwards presented with higher scores on<br />

the vertical jump measure (cm) than the other two positions, the<br />

differences found between these positions were not statistically<br />

significant. As a possible interpretation of this finding, it could<br />

perhaps be surmised that the tight forwards need greater amounts<br />

of power and strength in the tight phases (scrums) or even line-outs<br />

than do the other positions.<br />

For the 10 m dash (sec) scores (lowest score) a statistically<br />

significant difference (p


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

Table-2<br />

Descriptive statistics per group on physical-motor variables (best effort)<br />

Grouped Positions n Mean<br />

Std<br />

Dev<br />

Tight forwards Vertical jump difference between<br />

reach distance and best attempt (cm) 21 53.71 7.02<br />

Valid n (listwise) 21<br />

Loose forwards Vertical jump difference between<br />

reach distance and best attempt (cm) 27 53.63 6.84<br />

Valid n (listwise) 27<br />

Backs Vertical jump difference between<br />

reach distance and best attempt (cm) 30 52.57 5.31<br />

Valid n (listwise) 30<br />

Tight forwards 10 m dash sec<br />

lowest score (sec)<br />

40 m dash sec<br />

21 2.161 0.177<br />

lowest score (sec)<br />

21 5.944 0.358<br />

T-test lowest score (sec) 21 11.437 0.890<br />

Valid n (listwise) 21<br />

Loose forwards 10 m dash sec<br />

lowest score (sec)<br />

40 m dash sec<br />

27 2.012 0.196<br />

lowest score (sec)<br />

27 5.586 0.353<br />

T-test lowest score (sec) 27 10.655 0.757<br />

Valid n (listwise) 27<br />

Backs 10 m dash sec<br />

lowest score (sec)<br />

40 m dash sec<br />

30 2.006 0.173<br />

lowest score (sec)<br />

30 5.542 0.320<br />

T-test lowest score (sec) 30 10.745 0.919<br />

Valid n (listwise) 30<br />

In the 3 x 5 x 22 m anaerobic capacity test, no statistically<br />

significant differences were found between the scores of the three<br />

positional groupings for the first anaerobic capacity attempt. For<br />

the second and last attempts, significant differences (p


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

and third attempts were significantly higher than those of the other<br />

two positions. While the anaerobic capacity of the loose forwards<br />

and backs remained fairly stable over all three measurements, in<br />

this measure it is the loose forwards who outperformed the backs.<br />

A possible explanation for the superiority of the loose forwards in<br />

anaerobic capacity could be the relative workload that they<br />

produce to get through the game and to fulfil their game-based<br />

tasks successfully.<br />

Table-3<br />

Descriptive statistics per group on 3 x 5 x 22 m anaerobic capacity test<br />

Grouped<br />

Positions<br />

n Mean Std Dev<br />

Tight forwards 5 x 22 m set 1 (sec) 21 22.119 0.914<br />

5 x 22 m set 2 (sec) 21 23.869 1.499<br />

5 x 22 m set 3 (sec) 21 24.459 1.953<br />

Valid n (listwise) 21<br />

Loose forwards 5 x 22 m set 1 (sec) 27 21.533 1.015<br />

5 x 22 m set 2 (sec) 27 22.448 1.226<br />

5 x 22 m set 3 (sec) 27 22.543 1.305<br />

Valid n (listwise) 27<br />

Backs 5 x 22 m set 1 (sec) 30 21.744 1.259<br />

5 x 22 m set 2 (sec) 30 22.837 1.699<br />

5 x 22 m set 3 (sec) 30 22.826 1.450<br />

Valid n (listwise) 30<br />

C. Sport-vision component<br />

Table 4 presents the results of the Accuvision1000 30<br />

accurate lights in total time test (sec). Here, no statistically<br />

significant differences between positions were found. The loose<br />

forwards scored the best times (shorter time) in this measure,<br />

followed by the backs, with the tight forwards coming last.<br />

65


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

Table-4<br />

Descriptive statistics per group on Accuvision1000 30 accurate<br />

lights in total time test<br />

Grouped Positions n Mean<br />

66<br />

Std Dev<br />

Tight forwards 30 lights test (sec) 21 24.333 3.331<br />

Valid n (listwise) 21<br />

Loose forwards 30 lights test (sec) 27 21.778 3.474<br />

Valid n (listwise) 27<br />

Backs 30 lights test (sec) 30 22.778 4.387<br />

Valid n (listwise) 30<br />

D. Rugby-specific skill component<br />

1. S-test<br />

This test was self-devised and modified by Pienaar and<br />

Spamer (1998) from the pass for accuracy over 4 m and the catching<br />

while moving forward tests from Pienaar and Spamer (1995). The<br />

final version of this test includes two main aspects for successful<br />

completion, namely accuracy and time taken to complete the test.<br />

Therefore, a combined score was determined to get a total score for<br />

the S-test. This was necessitated by two main drivers:<br />

a. Some test participants could score 0 points (each accurate<br />

pass = 5 points – there are two passes, one left and one right)<br />

but take less time to complete the test course. By only<br />

considering the time taken to complete the test, the overall<br />

impression of a test participant’s relative or actual<br />

performance could possibly be inaccurate. A possible<br />

scenario is that 0 points can be scored in a shorter period of<br />

time as opposed to 10 points over a longer time frame.


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

b. In this measure, a higher passing score is associated with<br />

better performance, but since there is also a time factor<br />

involved in this test, as mentioned before, possible<br />

discrepancies could arise as to the true reflection of the<br />

scores obtained in this test.<br />

To address this potential problem the following solution was<br />

devised:<br />

The mean score in terms of time taken to complete the test<br />

was used to categorise performance into two groups. The first<br />

category or group 1 consisted of those participants who completed<br />

the test course in equal or less time than the average time (sec)<br />

taken by that specific grouped position. 2 “multiplier” points were<br />

assigned to these participants. The second category or group 2<br />

consisted of those subjects who took longer than the average time<br />

(sec) to complete the test course for that specific grouped position.<br />

These participants were assigned only 1 “multiplier” point. A total<br />

and final score for this S-test was then calculated by multiplying<br />

the points scored for passing accuracy (best attempt) (this could be<br />

0, 5 or 10 points) by the “multiplier” points (1 or 2) that the<br />

participant received for task performance relative to the mean time,<br />

per positional grouping. Therefore, this final score for the S-test<br />

was a computed score that took into account both the time taken to<br />

perform this task as well as the accuracy of the subject in<br />

completing it.<br />

Following the presentation of the tabulated scores in tables 5<br />

to 8, a discussion of the results, along with a full explanation of the<br />

scoring system and associated implications for this test per<br />

position, is provided.<br />

67


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

Table-5<br />

Mean scores on recoded time taken to complete the S-test per<br />

positional grouping<br />

Grouped Positions S-test 1 (Sec) S-test 2 (Sec)<br />

Tight forwards n Valid 21<br />

Mean 7.630 7.604<br />

Median 7.585 7.630<br />

Mode 6.91(a) 7.66<br />

Loose forwards n Valid 27<br />

Mean 7.299 7.002<br />

Median 7.230 6.980<br />

Mode 6.27(a) 5.65(a)<br />

Backs n Valid 30<br />

Mean 7.709 7.339<br />

Median 7.680 7.395<br />

Mode 6.68(a) 7.50<br />

(a) Multiple modes exist. The smallest value is shown.<br />

Table-6<br />

Frequencies for tight forwards’ best attempt on<br />

S-test computed total<br />

Score<br />

Obtained<br />

Frequency Per Cent Valid Per<br />

Cent<br />

68<br />

Cumulative<br />

Per Cent<br />

Valid .00 3 13.3 14.3 14.3<br />

5.00 6 26.7 28.6 42.9<br />

10.00 9 46.7 50.0 92.9<br />

20.00 3 6.7 7.1 100.0<br />

Total 21 93.3 100.0<br />

Total 15 100.0


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

Table-7<br />

Frequencies for loose forwards’ best attempt on<br />

S-test computed total<br />

Score<br />

Obtained<br />

Frequency Per Cent<br />

Valid Per<br />

Cent<br />

Cumulative<br />

Per Cent<br />

Valid 0.00 2 5.6 5.9 5.9<br />

5.00 4 11.1 11.8 17.6<br />

10.00 15 55.6 58.8 76.5<br />

20.00 6 22.2 23.5 100.0<br />

Total 27 94.4 100.0<br />

Total 18 100.0<br />

Table-8<br />

Frequencies for backs’ best attempt on S-test computed total<br />

Score<br />

Obtained<br />

Frequency Per Cent<br />

Valid Per<br />

Cent<br />

Cumulative<br />

Per Cent<br />

Valid 0.00 2 5.3 5.6 5.6<br />

5.00 2 5.3 5.6 11.1<br />

10.00 18 57.9 61.1 72.2<br />

20.00 8 26.3 27.8 100.0<br />

Total 30 94.7 100.0<br />

Total 19 100.0<br />

For the purposes of a more linear results discussion for this<br />

specific test, the implications of the scoring system are evaluated in<br />

conjunction with the interpretation of the results contained in tables<br />

6 to 8.<br />

0 score<br />

The subject is inaccurate with all their passes, no matter the<br />

time taken to complete the course and this is a poor reflection of the<br />

subject’s ball-passing ability. 14.3% of the tight forwards, 5.9% of<br />

the loose forwards and 5.6% of the backs achieved this score.<br />

69


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

5 score<br />

Obtaining 5 computed points implies that the subject<br />

completes one accurate pass only, in a time greater than the course<br />

mean time, once again reflecting badly on the subject’s passing<br />

ability at speed or under pressure. 28.6% of the tight forwards, 11.8%<br />

of the loose forwards and 5.6% of the backs obtained this score.<br />

10 score<br />

The computed score of 10 points can be interpreted in two ways:<br />

The first possible interpretation is that while the passing<br />

accuracy of a participant in this category may be high (10 points = 2<br />

accurate passes, 1 left and 1 right), the overall time taken to<br />

complete the test is more than the mean time for the specific<br />

positional grouping. This would therefore earn them 1 multiplier<br />

point and therefore a computed score of 10. The second<br />

interpretation is that the participant is less accurate in their passing<br />

(5 points = 1 accurate pass), but that the time taken to complete the<br />

test is less than the mean time for the specific positional grouping.<br />

This would, however, earn the participant 2 multiplier points, thus<br />

also arriving at a computed score of 10. By far the largest majority<br />

of all the positional groupings fell into this category, with 50% of<br />

the tight forwards, 58.8% of the loose forwards and 61.1% of the<br />

backs achieving this score.<br />

20 score<br />

A participant who achieves a computed score of 20 is highly<br />

skilled and able to accurately pass to both sides at speed and under<br />

pressure (10 points = 2 accurate passes, 1 left and 1 right). This<br />

implies that they manage to complete the course in less time than<br />

the mean, earning them 2 multiplier points and thus taking the<br />

computed total to 20 points. This is by far the ideal score to achieve<br />

for this test. 7.1% of the tight forwards, 23.5% of the loose forwards<br />

and 27.8% of the backs achieved this score.<br />

70


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

While a computed total S-test score of 20 would be the ideal,<br />

from the results presented in tables 9 to 12, a more realistic<br />

computed total S-test score of 10 can be used as the differentiating<br />

score between good and poor performances. It can be observed that<br />

higher numbers of backs achieved scores of 10 (61.1%) and 20<br />

(27.8%) as opposed to both loose forwards (55.6% and 22.2%) and<br />

tight forwards (46.7% and 6.75), showing that the backs and loose<br />

forwards display better handling skills than the tight forwards.<br />

2. Kick for distance and accuracy<br />

This test is self-devised and modified from the kick for<br />

distance test of Pienaar and Spamer (1995) in Pienaar and Spamer<br />

(1998). The results obtained in this test are presented in table 9. As<br />

it currently stands, this test can be used to some extent to get an<br />

idea of performance, but on the whole the benefit derived from the<br />

inclusion of this test in a testing protocol is that it simultaneously<br />

stresses the requirements for both distance achievement and<br />

accuracy. The standard deviations are rather high with this test,<br />

showing that the best attempts varied quite greatly. Further<br />

consistent testing and establishment of scores for comparison will<br />

rectify the cautionary issues pertaining to sample or base size<br />

sufficiently. Only the backs and loose forwards performed this test.<br />

Table 9: Descriptive statistics for kick for distance and accuracy<br />

Test n Minimum Maximum Mean<br />

Kick for distance and accuracy<br />

(best attempt left) (m)<br />

Kick for distance and accuracy<br />

(best attempt right) (m)<br />

57<br />

57<br />

71<br />

20.00<br />

25.10<br />

50.00<br />

47.50<br />

32.65<br />

39.76<br />

Std<br />

Dev<br />

8.00<br />

6.24


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

CONCLUSIONS AND RECOMMENDATIONS<br />

From the preceding results and discussion, it can be<br />

concluded that this study adds to the burgeoning body of<br />

knowledge as it pertains to talent identification in rugby union in<br />

South Africa. Furthermore, from the unique sample group used,<br />

the conclusion can be made that not only does this study lend itself<br />

to the sport and position-specific identification of those individuals<br />

who currently hold promise or participate at lower playing levels<br />

who have not yet been “discovered”, but can also be used to select<br />

those players who are currently “knocking on the door” to higher<br />

honours. The future sustainability of the success attained thus far<br />

should remain a top priority for all sporting bodies concerned with<br />

this sport.<br />

In keeping with these sentiments, broader and more specific<br />

recommendations are that talent identification in rugby union in<br />

South Africa should continue unabated and as is. But, while the<br />

specific components (anthropometric, physical-motor, sport skill)<br />

used in this study and other rugby-based studies (Pienaar &<br />

Spamer, 1995 in Pienaar & Spamer, 1998; Pienaar & Spamer, 1996a,<br />

1996b, 1998; Pienaar et al., 1998, 2000; Hare, 1999; Spamer &<br />

Winsley, 2003a, 2003b; Van Gent, 2003; Van Gent & Spamer, 2005;<br />

Plotz & Spamer, 2006; Spamer & De la Port, 2006) are certainly<br />

valid, and robustly so, further investigation into other aspects of<br />

performance is essential. In trying to achieve just that ideal, this<br />

specific study included sport-vision testing and this is certainly<br />

unique to rugby union-based talent identification studies. Related<br />

to this, the testing protocol of this study can be used quite<br />

effectively on its own or even in conjunction with other testing<br />

protocols, and this serves as a recommendation in this regard.<br />

By adopting a broader view, it is apparent in literature that<br />

there is now a greater tendency or bias toward talent development<br />

72


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

as opposed to the traditional talent identification approaches that<br />

are receiving ever-increasing criticism (Vaeyens et al., 2008). In fact<br />

Vaeyens et al. (2008), who in making their case make note of those<br />

that voice this sentiment (Morris, 2000; Abbott & Collins, 2002,<br />

2004; Martindale et al., 2005), then go on to say that these studies<br />

also make the call for larger groups of young individuals to be<br />

afforded the chance to undergo proper development. As a result,<br />

there are some who recommend that talent identification or testing<br />

be assigned a monitoring role (Abbott & Collins, 2004) or that<br />

testing be utilised to find existing shortcomings for subsequent<br />

correction through individualised training initiatives (Vaeyens et<br />

al., 2008). If sustained success is to be achieved in rugby in South<br />

Africa, the role players in the sport would do well to follow suit<br />

with regard to the broad-based developmental considerations of<br />

the sport. This is happening to some extent. It is the perspective of<br />

this study, though, that while the sentiment regarding talent<br />

development is certainly most valid, the specific function of talent<br />

identification is important and contributes to the overall<br />

development process, and that as Vaeyens et al. (2008) conclude,<br />

these two processes can and must be combined.<br />

Last, but certainly not least, one of the most pertinent<br />

recommendations for future research is the adoption of a more<br />

multidimensional approach to talent identification. Vaeyens et al.<br />

(2008) do say that studies can be found where this is in fact<br />

happening. Adopting a multidimensional approach can be<br />

achieved by incorporating measures that address the psychological<br />

aspects of performance. This is true for all sports types. Some<br />

South African studies, such as Hare (1999) on rugby union and<br />

Nieuwenhuis et al. (2002) on hockey, have in fact quite successfully<br />

incorporated psychological measures in their testing protocols, and<br />

with good reason. Furthermore, such is the importance of aspects<br />

such as perceptual-cognitive ability on sporting performance that<br />

73


A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

there are studies (Williams & Reilly, 2000; Williams & Ward, 2007;<br />

Vaeyens et al., 2008) that propose that these perceptual-cognitive<br />

aspects, along with technical aspects, can better distinguish<br />

between skilled sport participants and their less skilled<br />

counterparts as they advance in their sport than some of the<br />

components (such as physiology and anthropometry) used in this<br />

study and others mentioned prior. This certainly provides food for<br />

thought for the future. This notwithstanding, the inclusion of tests<br />

aimed at the psychological (and if possible perceptual-cognitive)<br />

aspects of performance in future testing protocols is imperative,<br />

both in rugby union and other sports.<br />

REFERENCES<br />

Abbott, A. & Collins, D. (2002). A Theoretical and empirical<br />

analysis of a “State of the Art” Talent Identification Model.<br />

High Ability Studies, 13(2): 157-178.<br />

Abbott, A. & Collins, D. (2004). Eliminating the dichotomy<br />

between theory and practice in talent identification and<br />

development: Considering the role of psychology. Journal of<br />

Sports Sciences, 22: 395-408.<br />

Du Randt, R. (Editor). (1992). Sport Talent Identification and Related<br />

Issues in Selected Countries. Port Elizabeth: University of Port<br />

Elizabeth.<br />

Durnin, J.V.G.A. & Womersley, J. (1974). Body fat assessed from<br />

total body density and its estimation from skinfold<br />

thickness: Measurements in 481 men and women aged from<br />

16 to 72 years. British Journal of Nutrition, 32: 77-97.<br />

Du Toit, P.J., Krüger, P.E., De Wet, K.B., Van Vuuren, B., Van<br />

Heerden, H.J. & Janse Van Rensburg, C. (2006). Influence of<br />

exhaustion on metabolism and visual motor performance of<br />

professional cricket players. African Journal for <strong>Ph</strong>ysical,<br />

Health Education, Recreation and Dance, 12(1): 50-59.<br />

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Evert, A. (2006). The Significance of Dominant Ball Carrying<br />

Collisions as an Indicator of Success in Rugby Union and the<br />

Biomechanical Analysis Thereof. Unpublished D<strong>Ph</strong>il<br />

Dissertation. Pretoria, University of Pretoria.<br />

Hare, E. (1999). Longitudinale Studie van Talentvolle<br />

Jeugrugbyspelers met Verwysing na Vaardigheid, Groei en<br />

Ontwikkeling. Ongepubliseerde DEd-verhandeling.<br />

Potchefstroom, Potchefstroomse Universiteit vir Christelike<br />

Hoër Onderwys.<br />

Harman, E., Garhammer, J. & Pandorf, C. (2000).<br />

Administration, scoring, and interpretation of selected tests.<br />

In BAECHLE, T.R. & EARLE, R.W. (Editors). Essentials of<br />

Strength Training and Conditioning. (2 nd Edition). National<br />

Strength and Conditioning Association. Champaign, Ill.:<br />

Human Kinetics. pp. 287-318.<br />

Hattingh, J.H.B. (2003). A Prevention Programme for Rugby<br />

Injuries Based on an Analysis Among Adolescent Players.<br />

Unpublished <strong>Ph</strong>.D Dissertation. Potchefstroom,<br />

Potchefstroom University for Christian Higher Education.<br />

Hazeldine, R. & Mcnab, T. (1991). Fit for Rugby. London:<br />

Kingswood Press.<br />

Krüger, P.E., Cilliers, J.F. & Rossouw, F. (2001). <strong>Ph</strong>ysiological and<br />

physical performance qualities of junior rugby players.<br />

African Journal for <strong>Ph</strong>ysical, Health Education, Recreation and<br />

Dance (AJPHERD), October (Supplement): 53-69.<br />

Martindale, R.J., Collins, D. & Daubney, J. (2005). Talent<br />

development: A guide for practice and research within<br />

sport. Quest, 57: 353-375.<br />

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Morris, T. (2000). Psychological characteristics and talent<br />

identification in soccer. Journal of Sports Sciences, 18: 715-726.<br />

Nieuwenhuis, C.F., Spamer, E.J. & Van Rossum, J.H.A. (2002).<br />

Prediction function for identifying talent in 14- to 15-yearold<br />

female field hockey players. High Ability Studies, 13(1): 21-33.<br />

Norton, K., Whittingham, N., Carter, L., Kerr, D., Gore, C. &<br />

Marfell-Jones, M. (1996). Measurement techniques in<br />

anthropometry. In Norton, K.I. & Olds, T.S. (Editors).<br />

Anthropometrica: A Textbook of Body Measurements for Sports<br />

and Health Courses. UNSW: Sydney, NSW. Australia. pp. 25-75.<br />

Pienaar, A.E. & Spamer, E.J. (1996a). A scientific approach<br />

towards the identifying of rugby talent among ten- and<br />

eleven-year-old boys. Kinesiology, 28(1): 48-53.<br />

Pienaar, A.E. & Spamer, E.J. (1996b). Motoriese en fisieke<br />

vermoëns van 10-jarige seuns met en sonder vorige ervaring<br />

in rugby. Suid-Afrikaanse Tydskrif vir Navorsing in Sport,<br />

Liggaamlike Opvoedkunde en Ontspanning, 19(1&2): 91-99.<br />

Pienaar, A.E. & Spamer, E.J. (1998). A longitudinal study of<br />

talented young rugby players as regards their rugby skills,<br />

physical and motor abilities and anthropometric data.<br />

Journal of Human Movement Studies, 34: 013-032.<br />

Pienaar, A.E., Spamer, E.J. & Pretorius, J.H. (2000).<br />

Veranderlikes wat onderskei tussen suksesvolle en minder<br />

suksesvolle tienjarige rugbyspelers in geselekteerde<br />

spelspesifieke posisies. South African Journal for Research in<br />

Sport, <strong>Ph</strong>ysical Education and Recreation, 22(2): 23-35<br />

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A PROTOCOL AND COMPARATIVE NORMS FOR THE IDENTIFICATION<br />

Pienaar, A.E., Spamer, E.J. & Steyn, H.S. (1998). Identifying and<br />

developing rugby talent among 10-year-old boys: A<br />

practical model. Journal of Sports Sciences, (16): 691-699.<br />

Plotz, A.F. & Spamer, E.J. (2006). A comparison of talented South<br />

African and English youth rugby players with reference to<br />

game-specific-, anthropometric-, physical and motor<br />

variables. South African Journal for Research in Sport, <strong>Ph</strong>ysical<br />

Education and Recreation, 28(1): 101-107.<br />

Quarrie, K.L. & Hopkins, W.G. (2007). Changes in player<br />

characteristics and match activities in Bledisloe Cup rugby<br />

union from 1972-2004. Journal of Sports Sciences, 25(8): 895-903.<br />

Smit, K. (2007). The Complete Book of Springbok Rugby Records.<br />

Cape Town: Don Nelson Publishers.<br />

Smith, J. (2006). The Little Book of English Rugby. Swindon: Green<br />

Umbrella Publishing.<br />

Spamer, E.J. & De La Port, Y. (2006). Anthropometric, physical,<br />

motor, and game-specific profiles of elite U 16 and U 18<br />

year-old South African schoolboy rugby players. Kinesiology,<br />

38: 176-184.<br />

Spamer, E.J. & Winsley, R. (2003a). A comparative study of British<br />

and South African 12yr old rugby players, in relation to<br />

game-specific, physical, motor and anthropometric<br />

variables. Journal of Human Movement Studies, 44: 37-45.<br />

Spamer, E.J. & Winsley, R. (2003b). Comparative characteristics<br />

of elite English and South African 18-year-old rugby-players<br />

with reference to game-specific skills, physical abilities and<br />

anthropometric data. Journal of Human Movement Studies, 45:<br />

187-196.<br />

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Unknown Author. (2007). Little Book of the Rugby World Cup: The<br />

Greatest Show on Earth. Swindon: Green Umbrella Publishing.<br />

Vaeyens, R., Lenoir, M., Williams, A.M. & <strong>Ph</strong>ilippaerts, R.M.<br />

(2008). Talent identification and development programmes<br />

in sport: Current models. Sport Medicine, 38(9): 703-714.<br />

Van Gent, M.M. (2003). A Test Battery for the Determination of<br />

Positional Requirements in Adolescent Rugby Players.<br />

Unpublished <strong>Ph</strong>D Dissertation. Potchefstroom,<br />

Potchefstroom University for Christian Higher Education.<br />

Van Gent, M.M. & Spamer, E.J. (2005). Comparisons of<br />

positional groups in terms of anthropometric, rugby-specific<br />

skills, physical and motor components among U 12, U 16, U<br />

18 and U 19 elite rugby players. Kinesiology, 37: 50-63.<br />

Venter, K. & Maré, Q. (2005). To Improve the Effect of Fatigue on<br />

Peripheral Vision, Peripheral Awareness, Dynamic Vision, Pro-<br />

Action Time, Reaction Time and Visual Concentration in Rugby<br />

Union Players on High School Level. Unpublished Honours<br />

Dissertation. Pretoria, University of Pretoria.<br />

Williams, A.M. & Reilly, T. (2000). Talent identification and<br />

development in soccer. Journal of Sports Sciences, 18: 657-667.<br />

Williams, A.M. & Ward, P. (2007). Anticipation and decision<br />

making: Exploring new horizons. In TENENBAUM, G. &<br />

EKLUND, R.C. (Editors). Handbook of Sport Psychology. (3 rd<br />

Edition). New York: John Wiley & Sons. pp. 203-223.<br />

78


LEADERSHIP BEHAVIOR AMONG ELITE MALE<br />

AND FEMALE GYMNASTS OF INDIA<br />

ABSTRACT<br />

Dr. Raj kumar Sharma 1<br />

The study was conducted on thirty five international gymnasts<br />

(nineteen males and sixteen females) who had represented the country in<br />

various International Gymnastics Championships during 2004-2008. The<br />

average age of males and females was 20.79 and 19.69. To collect data<br />

from the subjects, the Leadership Scale for Sport was used to measure the<br />

preferred and perceived leader behavior of male and female gymnasts on<br />

five dimensions of leader behaviour. The analysis of data revealed that:<br />

1.Male and female gymnasts of International level expressed similar<br />

preferences on the set of five leader behaviour dimensions. 2. The actual<br />

leader behavior of international male gymnasts toward to coaches was found<br />

greater in democratic behavior (DB), social support (SS) positive feedback<br />

(PF) and autocratic behaviour (AB) than females. It indicated that most<br />

male gymnasts need more skill training and instructions. They all thinks<br />

that coaches should give more Training & Instruction Behavior (TI).<br />

Because the way of improve gymnastics skills is very complicated and<br />

need to be strengthened. 3. There was no discrepancy between<br />

preferred and perceived leader behaviour of international male<br />

gymnasts on five leader behaviour dimensions. Differences were<br />

found among international level female gymnasts between specific<br />

coaching behaviour and actual leader behaviour in social support (SS)<br />

and autocratic behaviour (AB).<br />

Key words: Preferred, Perceived, Actual leader behaviour,<br />

Discrepancy, Specific coaching behaviour.<br />

1 Senior Gymnastic Coach, Sports Authority of India, State Gymnastics Training Centre, Bilaspur (C.G.), India


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

INTRODUCTION<br />

Leadership is the attempt to influence the behavior of an<br />

individual or group. Why is leadership so important? (Heresy &<br />

Blanchard, 1982) a) According to Fiedler and Chemers (1974),<br />

"effective leaders’ impact their organizations, and organizations<br />

without effective leadership are in trouble" ((Heresy & Blanchard,<br />

1982) b) Almost every facet of society has demanded excellence,<br />

constantly striving to achieve more. Effective leadership is needed<br />

to generate profit, improve skills, and increase productivity in<br />

business, education, industry, and sport. Effective leaders have<br />

been crucial as they met the needs of their followers and propelled<br />

them to greater success.<br />

A leader is an important director in an organization. The<br />

task for him (her) focuses on how to make employees contributing<br />

their knowledge and wisdom in the job. It is the same for a leader<br />

in a sport team. In the highly competitive athletic field, a leader<br />

needs to complete successful training schedules, and providing<br />

athletes competing skills in order to target the training objects.<br />

Furthermore, in order to handle a team, a leader also needs to train<br />

the EQ (Emotional Intelligence) management since a leader can be a<br />

friend, a consultant, a manager, a psychologist, and a funds<br />

collector of athletes. Sometimes, it also can influence athletes'<br />

behavior and be a model for imitating. Chen (1995) indicated the<br />

behavior, attitude and value standard of a leader can influence<br />

athletes' imitating behavior (Chi-Fu Cheng, 1997; Coste, Salmela &<br />

Russell, 1995). The reason that a coach can influence athletes is the<br />

job of coach is much more diversify, he (she) needs to react quickly<br />

when they face different problems come across to him /her (Hoai-<br />

Chi Yuen, 1997). Generally speaking, coaches’ training and teaching<br />

method both can influence the emotion management of athletes<br />

(Chi-Chung Chen, 1998).<br />

80


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

According to the past report, it indicated that a coach should<br />

be demanding, well organized, behaves well and highly achieved<br />

in the sport field (Ogilvie & Tutko, 1966, Sage, 1973). Further,<br />

historian named a coach as a new professional manager because<br />

they think the skills improvement from athlete came from the<br />

contribution of a coach. The research of coach leadership we called<br />

multidimensional model in India, now is adapted widely for<br />

finding out the interaction in a coach, an athlete and situation. As to<br />

the leadership of coaches, it related to the achievement and<br />

personality of an athlete. Moreover, leadership for athletes in<br />

different levels and sex has interaction. Comparing with male<br />

athletes, female athletes pay more attention to social support.<br />

Meanwhile, athletes who attend touchable sport training prefer<br />

democratic behavior than athletes who attend non-touchable sport<br />

training. Thus, coaches need to devote into how to create harmony<br />

feedback, and strengthen the psycho- physical force.<br />

In order to measure leader behavior, several researchers<br />

(Chelladurai & Saleh, 1978, 1980; Fleishman, 1957; Halpin & Viner,<br />

1957; Hemphill & Coons, 1957; Zhang, 1993) have attempted to<br />

develop instruments to measure this behavior. These instruments<br />

have been used to examine leader behaviors in the military,<br />

industry, education, organizations, and athletics. One of the first of<br />

such instruments was developed at the Ohio State University by<br />

Chelladurai and Saleh (1978 and 1980) to measure leader behaviors<br />

specifically in athletics... Five factors of the 40 items were identified<br />

to measure coach leadership behaviors. The five factors were:<br />

Training and Instruction Behavior (TI), Autocratic Behavior (AB),<br />

Democratic Behavior (DB), Social Support Behavior (SS), and<br />

Positive Feedback Behavior (PF).<br />

Lee and Lee (1993) found that Korean athletes involved in<br />

individual sports, combative sports, and team sports differed<br />

among themselves in all dimensions except in preferred training<br />

81


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

and instruction. Individual sports athletes preferred and<br />

perceived more democratic behaviour from their coaches than did<br />

the other two groups.<br />

Chelladurai and Saleh (1978) found that the congruence<br />

between preferred and actual behaviours in the autocratic<br />

behaviour and positive feedback dimensions effected satisfaction<br />

with the coach in a curvilinear manner (i.e. member were less<br />

satisfied when the actual behaviour deviated from preferred<br />

behaviour in either direction). Also, members were more satisfied<br />

with the coaches when his or her training and instruction<br />

behaviour exceeded their preferences.<br />

Schliesman (1987) found that perceived democratic behaviour<br />

and social support were positively related to general satisfaction<br />

with leadership. Also the discrepancy scores in training and<br />

instruction. Social support and positive feedback were significantly<br />

related to satisfaction with the three leader behaviours respectively.<br />

Sharma (1989) found that there were no differences between<br />

the preferences for specific leadership behaviour of swimmers and<br />

actual behaviour of coaches on the following aspects of leadership<br />

i.e. appreciation, independent plan, uniform training, spot<br />

appreciation, free communications, goal setting, personal favours,<br />

self correction of mistakes, self evaluation and due credit. The<br />

significant differences between the preferences for specific<br />

leadership behavior of swimmers and actual behavior of the coaches<br />

on the leadership variables like knowledge about skills, teaching of<br />

skills, finding out and corrections of mistakes, length and<br />

frequencies of training, knowledge of strategies and tactics and the<br />

procedures of implementation of these strategies at specific<br />

movements of competition.<br />

Sherman and Fuller (2000) investigated the preferred coaching<br />

behaviors of athletes from three distinct Australian sporting contexts.<br />

The coaching preferences of 317 athletes Results revealed an<br />

82


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

overwhelmingly high level of similarity in the coaching preferences<br />

between all athletes regardless of gender. Athletes from all three<br />

sports indicated that positive feedback, training and instruction and<br />

democratic behavior were preferred coaching behaviors. Social<br />

support, and autocratic behavior were not preferred.<br />

Lam (2007) indicated that female basketball players<br />

preferred a higher degree of (a) democratic behavior, (b) social<br />

support, (c) positive feedback, (d) situational consideration, and (e)<br />

teaching and instruction but a lower degree of autocratic behavior<br />

than what they perceived from their coaches. Male basketball<br />

players preferred a higher degree of (a) social support, (b)<br />

situational consideration, and (c) teaching and instruction than<br />

what they perceived from their coaches.<br />

Generally speaking, the leadership of coaches related to the<br />

performance of the games & athletes, training programmers,<br />

performance of the whole group…etc. Recently, the research<br />

focuses on the highly goals achieved coaches and athletes.<br />

However, the research related to the quantity seems not enough.<br />

How to clarify the relationship between coaches and athletes,<br />

shorten the expectation of athletes and the difference between the<br />

ideal and real leadership of coaches motivated me involving in<br />

doing the research.<br />

There has been much research done on comparing male and<br />

female athlete preferences and perceptions on coaching leadership<br />

behaviors. Few researchers have attempted to examine preferences<br />

and perceptions of Gymnasts for specific leadership behaviors of<br />

coach and actual leadership behaviors of Gymnasts. Hence keeping<br />

the above facts in mind, this study attempted to examine the<br />

differences of male and female gymnasts preferences and perceptions<br />

of coach leadership behaviors as measured by the LSS and whether<br />

their achievement level, level of performance or training has some<br />

influence on preferred and perceived leadership behaviour<br />

83


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

METHODS<br />

PARTICIPANTS<br />

The subjects of the study were 35 male and females<br />

gymnasts, who had represented the country in various<br />

International Gymnastics Championships. The athletes consisted of<br />

19 male gymnasts and 16 female gymnasts. Coaches of the selected<br />

gymnasts in senior national championship were contacted to obtain<br />

permission to meet the athletes, inform them of the nature of the<br />

study and invite them to participate this study. Players filled LSS<br />

to determine their preference and perception of leadership<br />

behaviors of their coaches. The mean age of males and females was<br />

20.79±2.31 and 19.69 ±2.79 respectively<br />

INSTRUMENTS<br />

To collect data from subjects, Leadership Behavior preferred<br />

and perceived versions of Chelladurai, (1994). Leadership Scale for<br />

Sport (LSS) was used to assess the leader behaviors of Indian male<br />

and female gymnasts of international level. These 40-item scales<br />

measure 5 dimensions of leadership behavior: training and<br />

instruction behavior (13 items), democratic behavior (9 items),<br />

autocratic behavior (5 items), social support behavior (8 items), and<br />

positive feedback behavior (5 items) through both a preference (“I<br />

prefer my coach to...”) and a perceived version (“my coach to...”)<br />

version. The items are assigned a score between 1 and 5 (1= never,<br />

5 = always).<br />

Chelladurai and Saleh (1980) reported the internal<br />

consistency ranged from .45 (autocratic behavior) to .83 (training<br />

and instruction) in preferred version and from .79 (autocratic<br />

behavior) to .93 (training and instruction) in perceived version<br />

Internal consistency (Cronbach’s alpha, 1951) of the LSS for the<br />

current study ranged from .65(autocratic behavior) to .91 (training<br />

and instruction) for the preference version, and .74(autocratic<br />

behavior) to .88 (social support).<br />

84


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

PROCEDURE<br />

The main purpose of this study was to investigate the<br />

differences between the international male and female gymnasts in<br />

preferred and perceived leadership. The discrepancy between<br />

the male and female international gymnasts in preferred and<br />

perceived leadership was also investigated. . All subjects filled out<br />

an informed consent form before answering any of the items on the<br />

questionnaire. The instructions for the LSS were thoroughly<br />

explained and each subject was informed that the information<br />

gathered from the study would be anonymous. The coaches and<br />

subjects were contacted personally at the site of championships.<br />

Respondents were called to a common place, when they were not<br />

busy and had enough time to spare for testing. Necessary<br />

instructions were given to the subjects before the<br />

administration of each test. No time limit was set for<br />

completion of the questionnaires, once the instructions clearly<br />

understood by them; preference version and perceived version<br />

questionnaire were given one after another with a short interval<br />

to the gymnasts. The completed questionnaires were collected<br />

from the gymnasts and it was verified that no questionnaire was<br />

left without being answered.<br />

RESULTS<br />

To find out the significance of differences among<br />

International level male and female gymnasts along with five<br />

dimensions of leader behaviour of preferred and perceived<br />

leadership, means, standard deviations, and t-ratios were<br />

computed. Level of significance was set at.05 level. The results<br />

of the study are presented in Table 1 and 4.<br />

Finding of the descriptive data of male and female<br />

gymnasts of international level on the set of five dimensions of<br />

preferred and perceived leadership indicated that male gymnasts<br />

preferred more on training and instruction (M =4.432±0.374)<br />

85


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

followed by positive feedback (M=4.105±0..571), social supports<br />

(M=3.946±0.799), democratic behaviour (M=3.805±0.598), and<br />

autocratic behavior (M=3.389±0.796) from their coaches. The actual<br />

leader behavior of male gymnasts of international level, they also<br />

perceived more on training and instruction (M=4.433±0.414)<br />

followed by positive feedback (M=4.205±0.552), social supports<br />

(M=4.007±0.544), democratic behaviour (M=3.811±0.574), and<br />

autocratic behavior (M=3.316±0.743) from their coaches. In case of<br />

female gymnasts of international level on the set of five<br />

dimensions of preferred and perceived leadership indicated that<br />

female gymnasts preferred more on training and instruction<br />

(M=4.216±0.557) followed by social supports (M=3.970±0.564),<br />

positive feedback (M=3.962±0.633), democratic behaviour<br />

(M=3.499±0.576), and autocratic behaviour (M=3.075±0.903) from<br />

their coaches . The actual leader behavior of female gymnasts of<br />

international level, they also perceived more on training and<br />

instruction (M=4.062±0.714) followed by positive feedback<br />

(M=3.625±0.521), social supports (M=3.367±0.374), democratic<br />

behaviour (M=3.264±0.668), and autocratic behaviour<br />

(M=2.600±0.566) from their coaches; see Table-1 (P-93).<br />

To find out the significance of difference between means of<br />

preferences on leader behaviour dimensions of male and female<br />

gymnasts; see Figure1), t-ratio was computed. International level<br />

male and female gymnasts did not differ significantly on any of the<br />

dimensions of leader behaviour, as the t-ratio for training and<br />

instruction (1.32), democratic behaviour (1.54), autocratic behaviour<br />

(1.08), social supports (0.019), and positive feedback (0.698) were<br />

less than the required t –value to be significant; see Table-2, (P-95).<br />

To find out the significance of difference between means of<br />

perceptions on leader behaviour dimensions of male and female<br />

gymnasts; see Figure-2, pp.95, t-ratio was computed. International<br />

level male and female gymnasts had significantly different<br />

86


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

perceptions on democratic behaviour (2.57), autocratic<br />

behaviour (3.23), social supports (3.56), and positive feedback<br />

(3.19) with male gymnasts perceiving higher amount of<br />

behaviour from their coaches in these dimensions. The<br />

difference in perceived training and instruction (1.33) was not<br />

statistically significant; see Table-3.<br />

The analysis of data revealed there were significant<br />

differences in preferred and perceived autocratic behaviour<br />

(2.10), and social supports (3.14) dimensions of international<br />

level female gymnasts. In case of international level male<br />

gymnasts, obtained t-ratios for the training and instruction<br />

(0.773), democratic behaviour (0.032) and autocratic behaviour<br />

(0.292)), social supports (0.276), and positive feedback (0.549)<br />

dimensions of leader behaviour were not significant. In case of<br />

international level female gymnasts, obtained t-ratios for the<br />

training and instruction (0.672), democratic behaviour (1.08) and<br />

positive feedback (1.652) dimensions of leader behaviour were<br />

not also significant; see Table 4 (P-93).<br />

DISCUSSION<br />

To see whether male and female gymnasts at each<br />

level taken independently, have different preferences on leader<br />

behavior dimensions; it was found that International male and<br />

female gymnasts on set-of five dimensions of leader behavior<br />

produced insignificant university analysis of variance. This<br />

similarity of preferences at top level of competition may be<br />

attributed to the possible similarity of attitude, style and<br />

competitive orientation of male and female gymnasts at<br />

international level.<br />

When the International male and female gymnasts were<br />

compared together on dimensions of leader behavior, they had<br />

significant differences in all the dimensions, except training and<br />

87


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

instruction. Which may be due to variations in practice methods,<br />

coaching style, interpersonal relationship and reinforcement? It<br />

showed that International male gymnasts perceived their coaches<br />

more in democratic behavior, autocratic behavior, social support and<br />

positive feedback in comparison of International female gymnasts,<br />

equally perceived their coaches in training and instruction.<br />

When male and female gymnasts of three different levels<br />

were compared on preferred and perceived leadership, it<br />

revealed that there was no discrepancy between preferred<br />

behavior and perceived (actual) behavior of international male<br />

gymnasts on five dimensions of leader behavior. Significant<br />

differences between preferences and perceptions were<br />

observed on social support and autocratic<br />

Behavior dimensions of leader behavior among<br />

International female gymnasts, means, they preferred more<br />

concerned for their welfare group atmosphere, warm interpersonal<br />

relationship along with independent decision making and control<br />

on training from their coaches. This was partially supported by<br />

Sherpa and Horne and Carron.<br />

CONCLUSIONS<br />

1. Male and female gymnasts of International level expressed<br />

similar preferences on the set of five leader behavior dimensions.<br />

2 International male gymnasts perceived more democratic behavior,<br />

social support, feedback and autocratic behavior than their<br />

female counter parts.<br />

3 There was no discrepancy between preferred and perceived leader<br />

behavior of International male gymnasts on five leader behavior<br />

dimensions, whereas International level female gymnasts<br />

expressed differences between their preference sand perceptions<br />

on social support and autocratic behavior.<br />

88


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

RECOMMENDATIONS<br />

Based on the results of this study, It is recommended that<br />

future studies:<br />

1. Examine athlete experience of different coaches and athlete<br />

preferences to determine if there is a correlation between athlete<br />

experience and coaching behavior preferences.<br />

2. Examine athlete preferences in comparison to athlete<br />

satisfaction and performance.<br />

3. Apply the LSS to different sports and competition levels to<br />

expand the research on coaching leadership behaviors.<br />

4. The research is mainly focuses on the domestic athletes, so, the<br />

further research can consider about comparing with<br />

international athletes.<br />

5. The research only adapted factor-analysis method. It can adapt<br />

more analysis like result-analysis according to coaches’<br />

personality and understand the difference of athletes’ feeling<br />

and body energy. It can be looked as important direction for the<br />

further research.<br />

REFERENCES<br />

Chelladurai, P. (1994). Manual of leadership scale for sports. U.S.A:<br />

Ohio State University.<br />

Chelladurai, P. (1990). Leadership in sports: A review. International<br />

Journal of Sport Psychology. IL 328-354.<br />

Chelladurai. P., & Saleh, S. D. (1978). Preferred leadership in sports.<br />

Canadian Journal of Applied Sports sciences. 3, 85-92.<br />

Chelladurai, P. & Saleh, S. D. (1980). Dimensions of leader behavior<br />

in sports: Development of leadership scale. Journal of Sport<br />

Psychology, 2, 34-45.<br />

Chi-Chung, Chen (1998): The influence of the volleyball coaches’<br />

leadership toward to athletes’ adjustment in a group, The<br />

University <strong>Ph</strong>ysical Education & Sports 36, 60-69<br />

89


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

Chi-Fu, Cheng. (1997). The research of the coaches’ leadership,<br />

Chung-Hwa Athletic 41, 22-32.<br />

Chi-Fu, Cheng. (1996): The research and editing of the sport leading<br />

chart, National Normal University, Athletic department.<br />

Coste.J. Salmela J. & H.&Russell. S. (1995) The knowledge of highperformance<br />

gymnastic coaches: Methodological framework.<br />

The Sport Psychology.17, 1-17<br />

Fiedler, F. E., & Chemers, M. M. (1974). Leadership and effective<br />

management. Glenview, IL: Scott-Foresman.<br />

Fleishman J .l, R A. (1957). A. leader behavior description for<br />

industry. In R. M. Stogdill & A. E. Coons (Eds.), Leader<br />

behavior: It's description and measurement (103-119).<br />

Columbus. OH: The Ohio State University.<br />

Halpin, A. W., & Winer, B. J. (1957). A factorial study of the leader<br />

behavior descriptions. In R. M. Stogdill & A. E. Coons (Eds.),<br />

Leader behavior: It's description and measurement (39-<br />

51). Columbus, OH: The Ohio State University.<br />

Hemphill, J. K., & Coons, A. E. (1957). Development of the leader<br />

behavior description questionnaire. In R. M. Stogdill & A. E.<br />

Coons (Eds.). Leader behavior: It's description and<br />

measurement (pp. 6-38). Columbus, OH: The Ohio State<br />

University.<br />

Haoi-Chi Yuen (1997). The influence and recognition of the<br />

coaches’ leadership toward to athletes’ background<br />

characteristic, Periodical of athletic research in university<br />

and college. Chinese Taipei university sports Federation<br />

proceeding of conference on physical education in 1997, 325 331。<br />

Heresy, P., & Blanchard, K. H. (1982). Management of<br />

organizational behavior utilizing human resources (4th Ed.).<br />

Englewood Cliffs, N J: Prentice-Hall.<br />

Kim, B. H., Lee, H.K., and Lee, J.Y. (1993). "A study on the coaches’<br />

leadership behaviour in sports". (Unpublished manuscript,<br />

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LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

Korea sports science institute) Cited by Robert N. Singer,<br />

Milledge Murphey and L.Keith Tennant. Handbook of<br />

Research on Sport Psychology (New york: Mc Millan<br />

Publishing Company,<br />

Lam, E. T. C. (2007). Preferred and perceived leadership styles by<br />

NCAA basketball players”. Research Quarterly for Exercise and<br />

Sport, 78, 114-117<br />

Ogilvie, B.&Tukto, T. (1966) Problem athletes and how to handle them.<br />

London Pelham Books.<br />

Reimer, Harold A. .((1995). Leadership behaviour preferences of<br />

intercollegiate football players. . . Journal of Sport and<br />

Exercise Psychology. 17, 27-37.<br />

Schliesman, E. S. (1987). Relationship between the congruence of<br />

preferred and actual leader behaviour and subordinate<br />

satisfaction with leadership. Journal of Sport Psychology.<br />

10, 157-166.<br />

Sage, G. H. (1973) Occupational socialization and value orientations<br />

of athletic coach, Research Quarterly, 44, 269-277.<br />

Sharma, A. K. (1989) "Comparison between Indian Junior<br />

Swimmer's Preferences for Specific Leadership<br />

Behaviour and Actual Behaviour of Swimming Coaches<br />

of India" (Unpublished Master's Thesis, Jiwaji University, Gwalior),<br />

Sherman, C. A. & R. Fuller, R... (2000) “Gender comparisons of<br />

preferred coaching behaviors in Australian sports”. Journal of<br />

Sport Behavior, 23, 389-406.<br />

Yu-Jung, Chen. (1995). The relationship between the swimming<br />

coaches’ leadership and athletes’ satisfactory and<br />

performance, the dissertation of National Normal University.<br />

Zhang, J. (1993). Modification and revision of the leadership scale for<br />

sports. Unpublished doctoral dissertation, Springfield<br />

College, Springfield, MA.<br />

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LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

Table 1<br />

Descriptive Statistics of Preferences and Perception on Five Dimensions<br />

of Gymnasts of Male and Female Indian Gymnasts of International Level<br />

------------------------------------------------------------------------------------------------------------<br />

Leader Behaviour Preferences Perceptions<br />

Male Female Male Female<br />

N=19) (N=16) (N=19) (N=16)<br />

------------------------------------------------------------------------------------------------------------<br />

Training & Instruction M 4.432 4.216 4.433 4.062<br />

SD 0.374 0.557 0.414 0.714<br />

Democratic Behaviour M 3.805 3.499 3.811 3.264<br />

SD 0.598 0.576 0.574 0.668<br />

Autocratic Behaviour M 3.389 3.075 3.316 2.600<br />

SD 0.796 0.903 0.743 0.566<br />

Social Supports M 3.946 3.970 3.316 3.367<br />

SD 0.799 0.564 0.544 0.512<br />

Positive Feedback M 4.105 3.962 4.205 3.625<br />

SD 0.571 0.633 0.552 0.521<br />

------------------------------------------------------------------------------------------------------------<br />

Table 2<br />

Significance of Difference between Mean Scores of Male and Female<br />

Gymnasts on Leader Behaviour Dimensions of Preferred Leadership<br />

------------------------------------------------------------------------------------------------------------<br />

Leader Behaviour Sex Mean MD<br />

92<br />

G DM t-ratio<br />

------------------------------------------------------------------------------------------------------------<br />

Training & Instruction Male 4.432 0.086<br />

0.215 1.32<br />

Female 4.216 0.139<br />

Democratic Behaviour Male 3.805 0.137<br />

0.306 1.54<br />

Female 3.499 0.144<br />

Autocratic Behaviour Male 3.389 0.183<br />

0.314 1.08<br />

Female 3.075 0.226


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

Social Supports Male 3.946 0.183<br />

0.006 0.02<br />

Female 3.970 0.141<br />

Positive Feedback Male 4.105 0.131<br />

0.143 0.78<br />

Female 3.962 0.158<br />

------------------------------------------------------------------------------------------------------------<br />

Insignificant at .05 level, t.05 (33) = 2.03<br />

Table 3<br />

Significance of Difference between Mean Scores of Male and Female<br />

Gymnasts on Leader Behaviour Dimensions of Perceived Leadership<br />

------------------------------------------------------------------------------------------------------------<br />

Leader Behaviour Sex Mean MD<br />

93<br />

G DM t-ratio<br />

------------------------------------------------------------------------------------------------------------<br />

Training & Instruction Male 4.333 0.095<br />

0.271 1.33<br />

Female 4.062 0.179<br />

Democratic Behaviour Male 3.811 0.132<br />

0.547 2.57*<br />

Female 3.264 0.167<br />

Autocratic Behaviour Male 3.316 0.171<br />

0.716 3.23*<br />

Female 2.600 0.141<br />

Social Supports Male 4.007 0.125<br />

0.640 3.56*<br />

Female 3.367 0.130<br />

Positive Feedback Male 4.205 0.127<br />

0.584 3.19*<br />

Female 3.625 0.130<br />

------------------------------------------------------------------------------------------------------------<br />

Significant at .05 level, t.05 (33) = 2.03


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

Table 4<br />

Significance of Difference between Mean Scores of Male and Female<br />

Gymnasts on Leader Behaviour Dimensions of Preferred and Perceived<br />

Leadership<br />

------------------------------------------------------------------------------------------------------------<br />

Leader Behaviour Sex Mean MD<br />

94<br />

G DM t-ratio<br />

Preference Perception<br />

------------------------------------------------------------------------------------------------------------<br />

Training & Instruction Male 4.432 4.333 0.099 0.128 0.773<br />

Female 4.216 4.062 0.154 0.229 0.672<br />

Democratic Behaviour Male 3.805 3.811 0.006 0.190 0.032<br />

Female 3.499 3.264 0.237 0.220 1.080<br />

Autocratic Behaviour Male 3.389 3.316 0.250 0.250 0.292<br />

Female 3.075 2.600 0.266 0.266 2.100*<br />

Social Supports Male 3.946 4.007 0.221 0.221 0.276<br />

Female 3.970 3.367 0.192 0.192 3.140*<br />

Positive Feedback Male 4.105 4.205 0.182 0.182 0.546<br />

Female 3.962 3.625 0.204 0.204 1.652<br />

------------------------------------------------------------------------------------------------------------<br />

Significant at .05 level, t.05 (30) = 2.04


LEADERSHIP BEHAVIOR AMONG ELITE MALE AND FEMALE<br />

Mean Scores<br />

Mean Scores<br />

5<br />

4<br />

3<br />

2<br />

1<br />

0<br />

5<br />

4<br />

3<br />

2<br />

1<br />

0<br />

Figure 1. Mean scores of international male<br />

and female gymnasts on five dimensions of<br />

leader behaviourof preferred leadership<br />

Male Female<br />

TI DB AB SS PF<br />

Figure 2. Mean scores of international male<br />

and female gymnasts on five dimensions of<br />

leader behaviourof perceived leadership<br />

Male Female<br />

TI DB AB SS PF<br />

95


CHILDREN’S PERCEPTION OF PHYSICAL<br />

EDUCATION AND SCHOOL SPORT IN SWAZILAND<br />

ABSTRACT<br />

O.M. Toriola 1<br />

Children’s perception of physical education and school sport<br />

(PESS) influences their intention to participate in physical activities and<br />

understanding of its learning outcomes. Evaluation of students’ attitudes<br />

towards PESS can also be helpful to educators to gain deeper insight into<br />

the challenges facing the subject in schools, especially given the fact that<br />

the status of PESS has declined considerably in many countries (Hardman<br />

& Marshall, 2001). In this study, the Sport in Education (SpinEd)<br />

questionnaire developed by Bailey and Dismore (2005) was administered<br />

to 405 primary and junior secondary school students (225 boys and 180<br />

girls) aged 6-15 years in Mbabane, Manzini and Piggs Peak, Swaziland.<br />

Results were analysed descriptively. Children’s responses concerning<br />

PESS were categorized under five domains, i.e. physical, cognitive, social,<br />

affective and lifestyle. In general, Swazi children had positive attitudes<br />

towards PESS, with older girls indicating less favourable attitudes than<br />

the younger ones. The girls also had poorer perceived competence in PESS<br />

activities compared to the boys. Regardless of age and sex, the children<br />

overwhelmingly rated Mathematics, Science and English as more<br />

important than PESS. The physical domain accounted for the children’s<br />

positive perception of PESS as they gave similar reasons for participating<br />

in PESS activities regardless of gender, i.e. to be healthy and fit, prepare<br />

for school sport competition and identify with own school. The<br />

implications of the findings for designing and implementing quality PESS<br />

programmes in Swazi schools were discussed.<br />

Key words: <strong>Ph</strong>ysical education, school sport, attitudes, age and<br />

gender comparisons.<br />

1 She is working in the Department of Primary Education, (<strong>Ph</strong>ysical Education Unit), University of Swaziland, Kwaluseni, Swaziland


CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

INTRODUCTION<br />

Participation in physical education (PE) is a fundamental<br />

right of children (UNESCO, 1978). This implies that schools should<br />

provide opportunities for children to participate in well structured<br />

PE activities as well as ensure that they inculcate desirable attitudes<br />

and values which will promote future participation and<br />

development of healthy lifestyles (President’s Council on <strong>Ph</strong>ysical<br />

Fitness and Sports, 2009). Despite the importance of PE in<br />

children’s growth and development, Hardman & Marshall (2001)<br />

reported that its status has declined in many countries, both in<br />

terms of statutory time allocation and resource allocation.<br />

According to Siedentop (1987) high school PE is an endangered<br />

species because it is gradually becoming extinct in secondary<br />

curricula. Siedentop’s (1987) view was based on the growing lack of<br />

expectations for significant outcomes in high school PE and the<br />

more worrying indication that students cared less about the subject<br />

matter. Therefore, physical educators have a role to play in creating<br />

a positive environment and opportunities that would motivate<br />

students to develop high expectations of learning outcomes in PESS<br />

which could beneficially influence their attitudes and underlying<br />

belief systems about the subject.<br />

A major setback to the image of PESS in public schools is<br />

that the evidence for many of the purported benefits and outcomes<br />

of physical activities are often debatable. Such claims which have<br />

been reported in the literature include its positive effects on selfconcept,<br />

self-esteem, anxiety, depression, tension, stress, selfconfidence,<br />

mood, efficiency and well-being (Svoboda, 1994).<br />

Talbot (2001) also reports that PE helps children to develop respect<br />

for the body - their own and others’, contributes towards the<br />

development of mind and body, positively enhances self-esteem,<br />

social and cognitive development and academic achievement. In a<br />

critical review of the perceived benefits and outcomes of PESS,<br />

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CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

Bailey (2006) suggests that its outcomes and benefits can be<br />

understood in terms of children’s development in the following<br />

domains: physical, lifestyle, affective, social and cognitive. He<br />

concludes that while strong evidence exists to suggest that PESS<br />

can facilitate development of these attributes in children, they do<br />

not occur automatically but require specific actions and interactions<br />

among PE teachers and sport coaches such that lessons taught<br />

emphasize quality provision, while applying didactic elements<br />

based on children’s need to have fun, enjoy participation,<br />

accommodate diversity and promote the principles of inclusion and<br />

integration.<br />

Several studies have been carried out on children’s attitudes<br />

towards participation in PESS in various countries. In their study<br />

on American children, Subramaniam & Silverman (2007) concluded<br />

that the children had moderately positive attitudes towards PE and<br />

reported a decline in attitude scores as a function of the students’<br />

grade level. Stelzer, Ernest, Fenster & Langford (2004) undertook a<br />

cross-cultural comparison of attitudes towards PE among high<br />

schools students in Austria, Czech Republic, England and USA.<br />

They concluded that whilst children across the countries had<br />

positive attitudes towards PE, most favorable attitudes were<br />

reported for students from Czech Republic, followed by Austrian<br />

and English students. In a study carried out among Turkish<br />

children, Koca, Asci & Demirhan (2005) examined differences<br />

between coeducational and single-sex schools in terms of students’<br />

attitudes towards PESS. They concluded that children attending<br />

coeducational classes had more favorable attitudes towards PESS<br />

than those attending single-sex schools. Amusa & Toriola (2008)<br />

also reported age and gender differences concerning perceptions of<br />

PESS among South African children of different racial groups.<br />

These findings support the importance of gender analysis in<br />

98


CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

evaluating attitudinal dispositions towards PESS among children<br />

and adolescents.<br />

In spite of the importance of PE in promoting physically<br />

active lifestyle in children, very few studies, if any, have been<br />

carried out on attitudes towards the subject in Swazi schools.<br />

Therefore, this study was primarily carried out to examine the<br />

attitudes of a group of school children in Swaziland towards PESS.<br />

A secondary purpose of the study was to analyse gender<br />

differences in the children’s perception of PESS.<br />

PE has had a long history in Swaziland since becoming<br />

British protectorate in the early 19 th century. PE was originally<br />

based on the 1933 British syllabus and has long been taught and<br />

examined at the three teachers colleges in the country. However,<br />

teacher preparation in the subject was problematic as no<br />

programme was in place at the university level for many years to<br />

train PE teachers. In recent years, positive attempts were made to<br />

formally re-introduce the subject as a curriculum offering in<br />

primary schools; an impetus that was driven by the launch of a<br />

certificate course in PE at the University of Swaziland in 2007.<br />

The Kingdom of Swaziland is almost entirely surrounded by<br />

South Africa. It gained independence from England in 1968 and has<br />

an estimated population of 1.2 million (2005 estimate). Its<br />

membership of Southern Africa Development Community (SADC)<br />

has considerably accelerated socio-economic development in the<br />

country. The mainstay of Swaziland’s economy includes sugarcane<br />

exports, tourism and small deposits of gold and diamond.<br />

99


CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

Figure 1: Map of Swaziland showing Mbabane, Piggs Peak and Manzini<br />

METHODS<br />

RESEARCH DESIGN AND PARTICIPANTS<br />

A modified Sport in Education (SpinEd) questionnaire<br />

originally developed by Bailey and Dismore (2005) was<br />

administered to evaluate children’s attitudes towards PESS.<br />

Participants were 405 students (225 boys and 180 girls) categorized<br />

into three age groups, i.e. 6-10 years (n=132); 11-14 years (n=155)<br />

and 15+ years (n=118). They were drawn from five primary and<br />

junior secondary schools in Mbabane, Manzini and Piggs Peak,<br />

Swaziland. The children participated in the study after parental<br />

informed consent was obtained.<br />

100


CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

QUESTIONNAIRE<br />

The SpinEd questionnaire has seven close and open-ended<br />

items, which are described as follows: two questions focused on<br />

participants’ age and gender. Three close-ended questions are<br />

designed to elicit responses to the various dimensions of perception<br />

of PESS using Likert scale format. Another question requests<br />

respondents to compare the relative importance of PESS with other<br />

school subjects. The last two questions required respondents to<br />

describe their feelings about PESS and indicate preferences for its<br />

various aspects.<br />

As suggested by Bailey & Dismore (2005), the SpinEd<br />

questionnaire was analyzed based on five main themes (or<br />

domains) which cover specific aspects of children’s development:<br />

physical; lifestyle, affective, social and cognitive. These domains<br />

could be described as follows: physical (reasons why children like<br />

or dislike PESS, i.e. regarding their physical condition, fitness,<br />

health and movement skills; cognitive (statements related to<br />

intellectual functioning and academic performance); social (reasons<br />

which are related to personal interactions, pro-social behaviors and<br />

social development, such as the children’s self-perception of<br />

intention to compete, cooperate, like a teacher, socialize with other<br />

pupils, meet with friends, like playing in teams, etc.), and affective<br />

(responses concerning attitudes, self-esteem, anxiety, stress and<br />

other mental states (depression, happiness, fun, etc.). In the<br />

affective domain were included statements reflecting relaxation,<br />

expression of one’s emotions, boredom, feel better, it’s interesting,<br />

feel happy, feel good, etc. Finally, lifestyle domain reflects the<br />

children’s perceptions regarding opportunities to engage in future<br />

physical activities and emphasizes general lifestyle dispositions.<br />

Typical examples of participants’ responses in this domain<br />

included will be fit, will be useful in the future, won’t be fat, it’s all<br />

my life, etc.<br />

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CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

Before the SpinEd questionnaire was used for actual data<br />

collection it was validated in a pilot test involving 58 children (27<br />

boys; 31 girls) attending two primary schools also in Manzini<br />

which were not part of the data used for the actual study. In the<br />

pilot test, the SpinEd questionnaire was validated by using cluster<br />

analysis and calculating Cronbach alpha coefficients. Reliability<br />

coefficients ranged between 0.73 and 0.87 (Cronbach α), thus<br />

indicating the stability of the questionnaire and its suitability for<br />

data collection.<br />

DATA ANALYSIS<br />

Descriptive statistics was used to analyze the data.<br />

Percentages were calculated based on the students’ responses to<br />

questionnaire items and used to present the results. The children’s<br />

responses to open-ended items were analyzed qualitatively.<br />

RESULTS AND DISCUSSION<br />

Table 1: Distribution of participants by age and sex*<br />

Sex<br />

Age (Years) Total<br />

6-10 11-14 15+<br />

Boys 67(29.8) 85(37.8) 73(32.4) 225 (55.6)<br />

Girls 65(36.1) 70(38.9) 45(25.0) 180 (44.4)<br />

Total 132 (32.6) 155 (38.3) 118(29.1) 405 (100)<br />

*Data presented as number (%).<br />

Results concerning the distribution of Swazi children based<br />

on age and sex are provided in Table 1. Among the boys and girls,<br />

the 11-14 year-old children were the highest number of<br />

participants, thereby accounting for 37.8% and 38.9% of the boys<br />

and girls, respectively or 38.3% of the total number of school<br />

children sampled.<br />

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CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

The children overwhelmingly indicated positive perception<br />

of PESS regardless of age and gender (Table 2). This was accounted<br />

for by responses received from 87% of the total number of<br />

participants. However, when the data were analysed according to<br />

gender and age categories, the following trends were observed:<br />

More boys (92%) than girls (81%) had positive perception of PESS.<br />

In contrast, 19% of girls and 8% of boys showed negative<br />

perception towards PESS. The girls’ data showed a decline in<br />

interest in PESS with age (Table 2). Specifically, younger girls (6-10<br />

years: 5-10; 11-14 years) had more positive perception of PESS than<br />

older girls (15+ years).<br />

Specifically, the percentage of girls in the various age groups<br />

who indicated positive perception of PESS were 49% (6-10 years),<br />

35% (11-14 years) and 12% (15+ years), respectively. However,<br />

among the boys, a consistent trend was found in which they<br />

indicated positive perception of PESS irrespective of age group.<br />

Table 2. Participants’ perception about PESS (n=405)*<br />

Gender<br />

Age<br />

(Years)<br />

I love it I like it<br />

I don’t<br />

like it<br />

I hate<br />

it<br />

Total<br />

Boys 6-10 25(37.3) 35(52.2) 5(7.5) 2(3.0) 67(16.5)<br />

11-14 37(43.5) 41(48.2) 5(5.9) 2(2.4) 85(21.0)<br />

15+ 33(45.2) 36(49.3) 3(4.1) 1(1.4) 73(18.0)<br />

Girls 6-10 28(43.1) 32(49.2) 3(4.6) 2(3.1) 65(16.1)<br />

11-14 37(52.9) 26(37.1) 4(5.7) 3(4.3) 70(17.3)<br />

15+ 10(22.2) 12(26.7) 17(37.8) 6(13.3) 45(11.1)<br />

Total 170(41.9) 183(45.2) 36(8.9) 16(4) 405(100)<br />

*Data presented as number (%).<br />

It was also of interest to this study to find out the students’<br />

perception about the relative importance of PESS compared with<br />

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CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

other traditional school subjects. Results showed that Mathematics,<br />

English and Science were consistently rated as more important than<br />

PE. This trend was consistent across gender and age categories and<br />

confirms the low status of PE in schools as well as the lack of<br />

seriousness attached to the subject.<br />

In terms of the perceived competence in PESS, the Swazi<br />

girls (44.2%) indicated poorer self- perception of competence than<br />

the boys (26%). The older (15+ years) girls (58%) indicated that they<br />

were poorest at PESS in contrast to the younger ones, specifically<br />

the 6-10 year olds (9%). In response to open-ended items in which<br />

the participants were requested to give reasons for their perception<br />

of PESS, most of the answers obtained could be categorized in the<br />

affective and lifestyle domains. Similar answers were provided by<br />

the boys and girls. Responses in the affective domain included<br />

statements such as, “it’s good for relaxation, it helps my emotions,<br />

it makes me free from boredom, it makes me feel better, it’s<br />

interesting, it makes me happy, it makes me feel good,” etc. Typical<br />

responses concerning lifestyle domain emphasize general lifestyle<br />

dispositions such as, “I will be fit, it will be useful to me in the<br />

future, I won’t be fat, it’s all my life,” etc.<br />

The findings of this study have significant implications for<br />

designing and implementing PESS programmes in Swazi schools.<br />

Consistent with previous studies (e.g. Amusa & Toriola, 2008; Koca<br />

et al., 2005; Stelzer et al., 2004) the results showed that the children<br />

generally had positive attitudes towards PESS. However, the girls’<br />

perceptions of PESS as well as their self-perceived competence in<br />

the subject were more negative than those of the boys. The girls’<br />

poorer perception may be a reflection of the influence of Swazi<br />

culture which is male dominated. Consequently, young girls<br />

hardly have role models in society and this could negatively<br />

influence their value orientation and belief systems, especially<br />

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CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

concerning competence in PESS activities. Therefore, in designing<br />

PESS programmes emphasis should be placed on providing a<br />

variety of activities so that children can enjoy participation<br />

regardless of their skill level. This strategy would encourage<br />

participation in PESS by girls and promote achievement of<br />

intended learning outcomes.<br />

It was also of interest to this study to find out determinants<br />

of the children’s perceptions of PESS. The results showed that<br />

physical, affective and lifestyle domains accounted for the<br />

children’s perceptions of PESS. In contrast, Figley (1985) examined<br />

the determinants of attitudes toward PE among college students<br />

and reported that teacher and the curriculum ranked as the top two<br />

factors determining both positive and negative attitudes, which<br />

accounted for approximately 70% of all responses. Figley (1985)<br />

also reported that variety and choice in programme content were<br />

curriculum factors that were most likely to be associated with<br />

positive attitudes among students. Similar findings were reported<br />

by Luke and Sinclair (1991) in their study of grade 11 students.<br />

However, in a study of 386 students Luke and Cope (1994)<br />

investigated students’ attitudes toward components of teacher<br />

behavior and PE programme content. They found that attitudes of<br />

male and female students toward teacher behavior and programme<br />

content were similar at every grade level.<br />

The findings of the present study which indicated that the<br />

learners regarded other school subjects as more importance that<br />

PESS is understandable in the light of the fact that PE is not yet a<br />

compulsory curriculum offering in Swazi schools. Therefore, the<br />

children would be naturally inclined to attach more importance to<br />

subjects in which they would be examined in view of its<br />

importance to their future career aspirations.<br />

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CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

The present results have practical implications for providing<br />

quality PESS in Swazi schools. Responses from learners which<br />

indicate their interests, preferences and value orientation are<br />

important considerations for designing and implementing PESS<br />

programmes. It is also important that PESS programme content<br />

reflects a variety of choices and activities which will provide ample<br />

opportunities for children to participate regardless of their skill<br />

levels.<br />

REFERENCES<br />

Amusa, L.O. & Toriola, A.L. (2008). Children's perception of<br />

physical education and school sports at selected South<br />

African schools. African Journal for <strong>Ph</strong>ysical, Health Education,<br />

Recreation and Dance, 14(4), 355-372.<br />

Bailey, R. (2006). <strong>Ph</strong>ysical Education and sport in schools: A review<br />

of benefits and outcomes. Journal of School health, 76(8), 397-401.<br />

Bailey, R. & Dismore, H. (2005). The Role of <strong>Ph</strong>ysical Education and<br />

Sport in Education: Final Report. Canterbury: Canterbury<br />

Christ Church University College, UK and ICSSPE.<br />

Figley, G. E. (1985). Determinants of attitudes toward physical<br />

education. Journal of Teaching in <strong>Ph</strong>ysical Education, 4, 229-240.<br />

Hardman, K. & Marshall, J.J. (2001). World-wide survey on the<br />

state and status of <strong>Ph</strong>ysical Education in schools. In G. Doll-<br />

Tepper & D. Scoretz (Eds.), World Summit on <strong>Ph</strong>ysical<br />

Education (pp. 15-36). Berlin, Germany: ICSSPE.<br />

Koca, C., Asci, F.H. & Demirhan, G. (2005). Attitudes towards<br />

physical education and class preferences of Turkish<br />

adolescents in terms of school gender composition.<br />

Adolescence, 40 (158), 365-375.<br />

106


CHILDREN’S PERCEPTION OF PHYSICAL EDUCATION<br />

Luke, M. & Sinclair, G. (1991). Gender difference in adolescents’<br />

attitudes toward school physical education. Journal of<br />

Teaching in <strong>Ph</strong>ysical Education, 11, 31-46.<br />

Luke, M. D. & Cope, L. D. (1994). Student attitudes toward teacher<br />

behavior and program content in school physical education.<br />

<strong>Ph</strong>ysical Educator, 51, 57-66.<br />

President’s Council on <strong>Ph</strong>ysical Fitness and Sports (2009). School<br />

physical education as a viable change agent to increase<br />

youth physical activity. Research Digest, 10(2), 1-8.<br />

Svoboda, B. (1994). Sport and <strong>Ph</strong>ysical Activity as a Socialiation<br />

Environment. Scientific Review Part 1. Strasbourg, France:<br />

Council of Europe.<br />

Siedentop, D. (1987). High school physical education: Still an<br />

endangered species. Journal of <strong>Ph</strong>ysical Education, Recreation<br />

and Dance, 58(2), 24-25.<br />

Stelzer, J., Ernest, J.M., Fenster, M.J. & Langford, G. (2004).<br />

Attitudes towards physical education: A study of high<br />

school students from four countries – Austria, Czech<br />

Republic, England and USA. College Student Journal, 38(2), 171.<br />

Subramaniam, P.R. & Silverman, S. (2007). Middle school students’<br />

attitudes toward physical education. Teaching and Teacher<br />

Education, 23, 602-611.<br />

107


ABSTRACT<br />

ROLE OF SPORTS IN LEADERSHIP:<br />

A SOCIO POLITICAL ANALYSIS<br />

Dr. Saima Shaikh 1 , Dr. Hamadullah Kakepoto 2 and<br />

Dr. Aslam Pervez Memon 3<br />

The basic objective of developing this article was to know how sports<br />

and games have developed the leadership qualities maintaining the harmony<br />

of body and mind among individuals in the society. The nature of the work<br />

is largely theoretical in fundamental nature as most of the data used has<br />

been taken from secondary sources. Sports have multiple functions as it<br />

stimulates the enthusiastic aspects of the people and the state.<br />

The position of sportsman and woman has been remarkable as they<br />

face the crowd courageously to express leadership qualities in one's<br />

personality expressing maturity to deal with enormous number of<br />

complexes nature of issues that surround them in daily life concerning<br />

their socio-political behaviors.<br />

METHODOLOGY<br />

This research paper was developed applying descriptive<br />

method to assess the major outcome of this work. This work was<br />

also undertaken to explore the dynamic impression of eleven<br />

internationally known former sports persons randomly selected<br />

from different countries that used their charisma to engage<br />

themselves in politics after retirement from sports, justifying<br />

effective popularity among people. Their very brief record has been<br />

discussed as role models proved themselves to be effective leaders<br />

in politics. Sports persons could be the wonderful leaders if they<br />

adopt the values of sportsmanship in their lives and political arena<br />

as well.<br />

1 Dr. Saima Shaikh isAssistant <strong>Prof</strong>essor, Department of Sociology, University of Sindh, Jamshoro<br />

2 Dr. Hamadullah Kakepoto Assistant <strong>Prof</strong>essor, Department of Sociology, University of Sindh, Jamshoro<br />

3 Dr. Aslam Pervez Memon Assistant <strong>Prof</strong>essor, Department of Political Science, University of Sindh, Jamshoro


ROLE OF SPORTS IN LEADERSHIP<br />

INTRODUCTION<br />

Socio-political study is normally referred to social values<br />

and group life. It emphasizes on the feelings that is regarded the<br />

most important segment for the success of any game. Discipline in<br />

the sports learning situation brings guidance in behavior, most<br />

conducive to learning process and effective for successful<br />

performance. It is important that investigation evaluate the drive to<br />

excel in leadership, to do better to surpass ones own previous<br />

performance, the records set by the others during competition of<br />

the moment, all of which are a part of the human striving for<br />

maximum output and efficiency. This paper is an attempt to assess<br />

that the outstanding sportsmen that lead healthy, active, peaceful<br />

and disciplined life.<br />

Social engineers could be the wonderful leaders if they<br />

experience outstanding sports background in their lives. Sports are<br />

also used for the purpose of achieving educational objectives. The<br />

social engineers of the society mainly emphasize on winning and<br />

targeting goals in their career. Sports develop the leadership<br />

qualities in one's personality. This term normally used to<br />

characterize the individual that grows, matures, and reacts to the<br />

thousands of environmental stimuli that surround him. The<br />

learning of social values, particularly sportsmanship, must be a<br />

part of the purpose of the individual as its results must be<br />

recognized and be made satisfying if learning is to take place<br />

(Gatrell, 2004).<br />

Leadership is the process of providing direction and<br />

obtaining their voluntary commitment to the leader's vision. A<br />

leader creates a vision and goals influencing others to share that<br />

vision and work toward the goals. Therefore, they are concerned<br />

with bridging about change and motivating others to support that<br />

vision for better modification. Many scholars affirm that<br />

management involves coping with complexity, while leadership is<br />

about coping with change.<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

Leaders can be found at all levels of a sports organization, but<br />

not all immediately stand out before the crowd in different situations<br />

at different moments of organization that require different skills in<br />

leadership. A young person may be marvelous at exercising<br />

leadership in volleyball team and some time, may be unlikable in<br />

another environment. This happens frequently, and some brilliant<br />

young sports leaders’ mode of undertaking exercise in their training<br />

projects and may not choose to work with just because they do not<br />

know how to do it. Such practice has different set of norms,<br />

authority structures and different sets of adaptive challenges that the<br />

individual may be unfamiliar with.<br />

But apart from the different forms of authority traits leaders<br />

describe, how effective young leaders can influence others. These<br />

characteristics have been put into four categories of models: traits,<br />

behavioral, contingency and transformational. There is no simple<br />

answer to which type of the leadership works best. Almost half<br />

century ago, trait models of leadership were popular. Gradually, as<br />

evidence accumulated, traits models were replaced-first by<br />

behavioral models and then by contingency models. Currently, the<br />

transformational model has many supporters, reflecting efforts of<br />

many leaders to transform outdated forms of organizations into<br />

more competitive ones. Traits models are based on the assumption<br />

that certain physical, social, and personal characteristics are<br />

inherent in leaders. According to this view, the presence or absence<br />

of these characteristics distinguish leaders from non-leaders. Some<br />

of the key traits are physical, social background and personality<br />

traits (John, 1972). There is some common sense supporting the<br />

notion that effective leaders, young or older, have certain traits.<br />

However, research has not proved that traits consistently separate<br />

potential leaders from non-leaders. For example, the physical<br />

characteristics of a young baseball athlete do not necessarily<br />

correlate with his ability to exercise successful leadership later in<br />

his life. They relate only to perceive leadership ability.<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

Modern education system in developed and under<br />

developed states have shown concern about leadership education<br />

that includes more distinct learning both as a separate curriculum<br />

and as a part of every course work taught in administrative<br />

sciences. This will take time, patience and financial investment, but<br />

it can be done. Many academic institutions at university level in<br />

Euro-America and Asia including Pakistan have made significant<br />

attempts to offer dedicated classes on leadership, and it requires<br />

many political students, undertake lengthy field exercises of speech<br />

training and legal aspects that concern our society, acquire<br />

practical experience prior to receive graduation.<br />

There is no silver bullet for bridging the leadership gap<br />

among the nation’s political institutions. But, the gap is real and<br />

need is clear when compared developing world with Euro-<br />

American nations, and change only happens when we make it a<br />

priority. Many perceive a crisis of leadership in Pakistan as perhaps<br />

our political institutions and higher education commission policies<br />

rarely take a stronger role in solving the problems of the society.<br />

Today's world is on the fast track. Therefore, the leadership<br />

styles applied during the past decades differs substantially from<br />

the one needed to be applied in the present times. To illustrate this,<br />

consider the young members of a school baseball team who if<br />

unwilling and unable to perform well, the school coach will then<br />

definitely have to follow the autocratic leadership style. As the<br />

coach applies appropriate motivation and training techniques, the<br />

young trainees gradually become willing and able to perform well.<br />

Hence the situation is changing. This denotes that the leadership<br />

should also evolve from autocratic towards the democratic style. In<br />

a few words the leadership style should comply with the evolution<br />

of the outstanding situation. It illustrates, sports organizations,<br />

especially those that involve children, must confront with the years<br />

to come and learn from past practices by continuously adopting to<br />

the new instruction programs that evolve towards leadership in<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

sports. The literature is at hand about denoting the close<br />

relationship between leadership and sportsmanship. The sociology<br />

deal and consider the two traits as linked with each other. Social<br />

psychology also elaborates that sports promote leadership and<br />

discipline (Kenneth et. al, 2002).<br />

PROMOTION OF LEADERSHIP QUALITIES<br />

A healthy body makes a healthy mind and sports are vital<br />

for making leaders. There are similarities between a sportsman and<br />

a leader, some attributes and qualities which also make a<br />

sportsman a great leader. In sports one develops the qualities<br />

which make a sportsman successful in other spheres of life as well.<br />

While remaining in sports group one learns co-operation, coordination,<br />

enthusiasm to lead others and develop leadership skills<br />

and how to make individual physically and mentally strong living<br />

in groups. Leaders have charismatic personality, but have some<br />

peculiar and special qualities as well. Therefore, sports help<br />

developing athletes’ unique personalities (Sherrill, 1988).<br />

SPORTS AND PROFESSIONALISM (ENGINEERING)<br />

Table1: Key elements that can be identified and taught.<br />

Achievement motivation Hypnosis<br />

Athletic personality Mental practice<br />

Athletic task analysis Mottos learning<br />

Coaching Styles Peak performance<br />

Competition Positive Visualization<br />

Control of attention Self-regulation<br />

Coping strategies Still acquisition<br />

Emotions and performance Social facilitation<br />

Exercise and Mental Health Stress reduction<br />

Goal setting Team cooperation<br />

Group (team) dynamics Training procedures<br />

Source: Introduction to Psychology, 8 th Edition, Dennis Coon, Brook/Cole<br />

Publishing Company, USA, 2004.<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

The above table reflects the impact of various factors of self<br />

confidence, self-motivation and others which are usually<br />

considered as achieved. Motivation is the factor which is directly or<br />

indirectly related with hypnoses. Stress is relative with self<br />

acquisition, self regulation, social facilitation and team cooperation.<br />

The above table indicates the relationship between<br />

variables.<br />

Leadership qualities developed through sports participation:<br />

The followings characteristics are essential for developing ideal<br />

leaders in a democratic society of the nations:<br />

Quality to lead; consultation; patience; commitment; to face the reality<br />

and to accept it; discipline; team work; taking up the challenge;<br />

planning /strategy and character building<br />

SPORT LEADERS AND MOTIVATORS<br />

It is hard to ignore the fact that leaders have self-motivation and a<br />

great deal of energy to lead others. It is the energy that brings honor, selfrespect,<br />

and grace as fruits of leadership. The psychological relationship<br />

between sports and leadership can be understood in the following contexts:<br />

Sport as an out let for aggression in leaders:<br />

One accumulates aggression through the occasional (or frequent)<br />

frustration of daily life and piles up his aggressiveness at times. Sport as<br />

lessening inferiority feelings and make leaders. The normal person<br />

possesses inferiority feelings and wants success, popularity, and<br />

admiration from his fellows. Sports permit friendly rivalries and joyous<br />

interplay within one’s own family and peer groups.<br />

Leadership discipline:<br />

The discipline in sports facilitates adequate learning and<br />

motivates for peak performance, either of the individual or the group.<br />

The complete combination in the sport group takes one’s mind away<br />

from self and focuses it outwardly and describes a direction of<br />

attention. The drive to excel, to do better, to surpass one's own<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

previous performance and the records set by others are all part of the<br />

human striving for maximum performance and efficiency.<br />

Leadership is always something of a two-way lane in which<br />

leaders influence followers and in turn, hold some degree of<br />

influences over leaders. The major tasks performed by leaders is to<br />

make decisions, considering the situation in which high quality<br />

decisions are necessary as the leaders have enough information to<br />

decide alone, but the acceptance by follower is crucial as it may not<br />

work effectively without their active support.<br />

ROLE OF SPORTS IN LEADERSHIP<br />

It is a fact that peak performance requires more than<br />

physical training. The mental and emotional conditioning is also<br />

very important to be a leader. Sports teach a leader how to relax,<br />

how to ignore distractions and cope up with emotions. The leader<br />

also learns that if someone is good in sports, he needs personal<br />

counseling for excelling performance by decreasing stresses and<br />

conflicts. (Dohrenwend et. al., 1974)<br />

A good leader may also benefit from sports. For many the<br />

payoffs are stress reduction, better self-image and improved general<br />

health. Researchers have reported, for instance, that running is<br />

associated with lower levels of tension, anxiety, fatigue, and depression<br />

than is found in the non-running population (Ken et. al., 2005).<br />

INTERNATIONAL SPORTS CELEBERTIES IN LEADERSHIP ROLE<br />

Our society has several examples of the personalities who were<br />

great athletes as well as significant leaders. They developed the<br />

qualities of leadership through sport participation in their whole life.<br />

One could easily find many sport persistent personalities<br />

who later on became famous leaders with impressive leadership<br />

qualities. Such as:<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

1. Imran Khan A dynamic and enthusiastic personality in<br />

Pakistan, whose name is commonly associated with trust,<br />

leadership, captainship, business and charity success<br />

believed to be a man of inspiration to young generation.<br />

When he played cricket, he left all problems behind him to<br />

concentrate on winning the game, and got success by<br />

creating history by winning the World Cup in 1992 and later<br />

on he left the field of Cricket after wining the World Cup.<br />

He built Shaukat Khanum Memorial Cancer Hospital and<br />

Research Centre at Lahore in 1994. Later on he involved in<br />

Politics and founded “Pakistan Tehreek-e-Insaf” in 1996. He<br />

not only established a party but he won the election and got<br />

membership in National Assembly of Pakistan. He wrote<br />

several books including Imran Khan’s cricket skills, The<br />

autobiography of Imran Khan, Indus Journey: A personal<br />

View of Pakistan, All Round View, and Warrior Race: A<br />

Journey through the Land of the Tribal Pathans.<br />

2. Pele the legendry player of Brazil known as the King of<br />

Soccer (Football) game, has remained outstanding player of<br />

the world, played a pivotal role in winning the World Cup<br />

and after retirement he was elevated as the minister for sport<br />

and culture in Brazilian government<br />

3. Qasim Zia has remained outstanding Hockey player,<br />

represented Pakistan at Olympics of 1984 in Los Angles,<br />

USA and also at 1986 Hockey World Cup. His multidimensional<br />

personality made him provincial Legislator in<br />

the Punjab Assembly in Pakistan under the platform of<br />

Pakistan Peoples Party. He was appointed as the 23rd president of the Pakistan Hockey Federation by Prime<br />

Minister of Pakistan on October 15, 2008.<br />

4. Navjot Singh Sidhu an enthusiastic and very intelligent<br />

person, also known as Sidhu Paaji. He was a successful<br />

Indian cricketer. After his retirement from cricket he became<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

a sports journalist and took delight in presenting<br />

5.<br />

commentaries; he is also the popular anchor of Indian<br />

comedy TV channel.<br />

Sidhu was elected to the Lok Sabha from Amritsar in 2004<br />

on Bharatiya Janata Party ticket. He later resigned, following<br />

allegation of culpable homicide. After the Supreme Court<br />

acquitted him, he successfully contested the Amritsar Lok<br />

Sabha seat, defeating his Congress rival, state finance<br />

minister Surinder Singla.<br />

Vince Lombardi will be remembered forever linked with the<br />

unprecedented success of green bay packer’s professional<br />

American football. He had an unquenchable desire to<br />

succeed, to excel, and to win. His famous slogan was<br />

“winning is not every thing, it is the only thing”. His statue<br />

is erected in his memory to recognize the services of legend.<br />

6. Idi Amin former army general and President of Uganda<br />

who remained light heavy weight Boxing champion, used to<br />

call himself Lord of all Beast of the earth and fishes of the<br />

seas and conqueror of British Empire in Africa and Uganda<br />

in particular.<br />

7. Colin Moynihan was the Cox of the winning oxford in boat<br />

racing and silver Medalist in Moscow Olympics. He was Tory<br />

M P and minister for sports under Prime Minister, Margaret<br />

Thatcher and worked as chairman, Olympic Association.<br />

8. Dawn Fraser was Australia’s greatest female athlete, a<br />

swimmer who won four Olympic Gold Medals. She has<br />

remained independent Member of Parliament in New South<br />

Wales, Australia.<br />

9. Miriam Blasco of Spain has remained outstanding sports<br />

girl, won Gold medal in Judo at Barcelona Olympics and<br />

became Member of Parliament for Partido Popular, Spain’s<br />

right wing opposition party.<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

10. Ben Nighthorse Campbell was a Native American who<br />

represented the US in judo at the Tokyo Olympics in 1964<br />

and later on he became US senator who changed sides from<br />

Democrat to Republican.<br />

11. Bernard Laporate was a promising coach of the French<br />

rugby union side and later on he became Minister for Sport<br />

in Nicolas Sarkozy’s government.<br />

CONCLUSION<br />

From above mentioned outstanding sport persons from<br />

different nations after retirement played their role in politics. It is<br />

assumed that popular sports persons can also perform well in<br />

holding political office. A high emotional involvement as a<br />

sportsman is more likely to increase the endurance or the charisma<br />

used in expressing ones skills of leadership trait and increases the<br />

reliability of movement and accuracy of performance in any<br />

leadership task. Normally people feel the need of the leadership<br />

skill and sports in their society and the role of media for social<br />

participation, social development and human understanding. Sport<br />

in personality is strongly motivated by the excess energy displayed<br />

and the urge to perform with excellence in individuals. The<br />

popularity and persistence of sports down through history and in<br />

most of the civilizations of the world today, could not be explained<br />

in words if sports did not bring pleasure, relief, and joy in<br />

performance. The emotional overtones of sports add color to life.<br />

Thus, sports and games develop the leadership qualities as well,<br />

the personality and help to maintain the harmony between body<br />

and mind. The outstanding sports persons can lead a peaceful and<br />

disciplined life.<br />

117


ROLE OF SPORTS IN LEADERSHIP<br />

RECOMMENDATIONS<br />

A subject pertaining to sports science and physical education<br />

should be included at Schools, undergraduate and postgraduation<br />

levels at the universities of Pakistan as<br />

introduced in many countries of Euro- America.<br />

5% Job opportunities may be provided to the sportsmen in<br />

all public and private sector departments to facilitate<br />

outstanding players.<br />

Internship program during summer and winter vacations be<br />

introduced to train the youth in the field of sports and<br />

monthly adequate stipend be given to meritorious students.<br />

Government should encourage and promote NGOs who are<br />

committed to sports development in the country through<br />

national departments and educational institutions.<br />

In order to divert the attention of the people towards healthy<br />

sporting activities, new Sports channels on TV are increased<br />

telecasting regular coaching and training programs, and<br />

various International competitions. In this regard, electronic<br />

and print media may also play its role in decent and<br />

effective manner.<br />

In public and private sectors mega projects in the form of<br />

sports Complexes, gymnasiums and Swimming Pools are<br />

constructed in educational institutions. It would promote<br />

and make the students mentally and physically fit to deliver<br />

the goods to the society effectively.<br />

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ROLE OF SPORTS IN LEADERSHIP<br />

REFERENCES<br />

Dohrenwend, Barbara Snell, and Bruce P. (1974) Stressful Life Events:<br />

Their Nature and Effects. Willey Interscience; New York.<br />

Dennis Coon (2004), Introduction to Psychology. 8 th Edition,<br />

Brook/Cole Publishing Company, USA.<br />

John, D. Lawther (1972). Sport Psychology. Prentice Hall, Inc<br />

Enplewood Cliffs, New Jersey, Published in USA.<br />

Ken, Brown, (2005) Introducing Sociology for As Level, 2 nd Edition,<br />

Polity Press Melden, USA.<br />

Kenneth S. Bordens & Irwin A. Horowits (2002) Social Psychology,<br />

2 nd Edition, London Lawrence Erlbaum Associates &<br />

Publishers, Mahwah, New Jersey, p.50.<br />

Robert A. Baron, & Donn Byrne (1995), Social Psychology, Prentice,<br />

Hall of India. Private Limited, New delhi, p.516.<br />

Sherrill, C. (1988) Leadership training in adapted physical<br />

education. Champaign, IL: Human Kinetics.<br />

119


RELATIVE TIMING AND RHYTHM: A KEY TO MOTOR<br />

SKILL LEARNING<br />

ABSTRACT<br />

Dr. Lin Wang 1<br />

Rhythm is needed for all coordinated movements to be performed<br />

accurately and, without exception, sports skills are considered rhythmic in<br />

nature. Mature motor skill patterns have a definite stable rhythmic<br />

structure. Rhythm, the critical piece of information needed in order to<br />

reproduce the correct motor skill, can be easily missed by learners.<br />

Unfortunately, apart from what we can draw from our own sport<br />

participation, finding information on how to teach rhythm is surprisingly<br />

difficult. To bridge the gap between relative timing enhancement and<br />

rhythm acquisition, recommendations from research studies on how to<br />

develop relative timing are interpreted for practitioners who are teaching<br />

rhythm.<br />

THE PRACTICAL PROBLEM – VIGNETTE OF JOHNNY<br />

It was the beginning of the school year: Johnny and Susan<br />

signed up for intermediate volleyball class. Having the experience<br />

of quickly learning to pass and set volleyball in the beginning class,<br />

they expected to learn the spiking skill easily. After the instructor<br />

demonstrated to the class what a proper spike looked like, Johnny<br />

and Susan practiced the spike themselves without the volleyball.<br />

Susan performed the step-step-close approach perfectly to get<br />

herself high in the air ready for spiking; however, Johnny was<br />

having a very difficult time getting the rhythm necessary to<br />

perform the technique. Instead of the “step-step-close” approach,<br />

Johnny performed two strides of even length. As he continued to<br />

have trouble with the rhythm of the spike approach, he became<br />

1 Assistant <strong>Prof</strong>essor, Department of Health and Kinesiology, The University of Texas - Pan American, USA


RELATIVE TIMING AND RHYTHM<br />

frustrated, making it difficult for him to enjoy the class. How could<br />

the instructor help Johnny master the critical segment of the<br />

volleyball spike approach? As a teacher or a coach, you may have<br />

encountered similar scenarios with different sport skills and with<br />

different levels of learners. John could be a college student, a 12year<br />

old junior high-school pupil, or a 35-year old person with<br />

disabilities. Rhythm, the critical piece of information needed in<br />

order to reproduce the correct motor skill, was missed by John.<br />

Unfortunately, apart from what we can draw from our own sport<br />

participation, finding information on how to teach the volleyball<br />

spike approach rhythm (or for that matter any motor skill that<br />

requires rhythm) is surprisingly difficult.<br />

WHAT IS RHYTHM?<br />

Rhythm is needed for all coordinated movements to be<br />

performed accurately and, without exception, sports skills are<br />

considered rhythmic in nature (Bennett & Riemer, 1995; Gallahue &<br />

Donnelly, 2002; Kirchner, 1981). Mature motor skill patterns have a<br />

definite stable rhythmic structure (Fulop, Kirby, & Coates, 1992),<br />

this includes swimming (Colwin, 2003; Wang & Hart, 2005),<br />

hurdling (Hay & Schoebel, 1990), juggling (Beek, 1992), volleyball<br />

spiking (Coleman, Benham, & Northcott, 1993), and piano playing<br />

(Drake & Palmer, 2000). For example, in swimming, the arms and<br />

legs move rhythmically in all strokes to propel the swimmer<br />

forward; moving arhythmically is inefficient and slows down the<br />

swimmer. Additionally, professional athletes turn high-level<br />

performance into art by demonstrating the beauty of being<br />

rhythmic. In some cases (e.g. dance, gymnastics), students’ abilities<br />

to move rhythmically are set as goals to achieve (National Dance<br />

Association, 1997). However, no information on how to teach the<br />

rhythmic component is mentioned directly in the literature.<br />

Information on enhancing relative timing can only be inferred from<br />

studies examining the effectiveness of a generalized motor program<br />

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RELATIVE TIMING AND RHYTHM<br />

(GMP). Furthermore, such evidence on methods to enhance relative<br />

timing acquisition has not been tested extensively in practical<br />

settings (Shea, Lai, Wright, Immink, & Black, 2001).<br />

WHY IS RHYTHM A CRITICAL PIECE OF INFORMATION<br />

FOR MOTOR SKILL ACQUISITION?<br />

The unique rhythm associated with one particular motor<br />

skill or shared by a group of motor skills is considered one of the<br />

key proponents of motor schema (Schmidt & Lee, 2005). Even<br />

researchers holding contrasting thoughts on how motor skills are<br />

acquired agree on the vital meaning of the rhythm of the skill as an<br />

attractive state for movement pattern organization (Kelso, 1995). As<br />

stated by Schmidt and Wrisberg (2008), the temporal pattern of a<br />

motor skill (rhythmic component of the skill), serves as a marker<br />

and separates one motor skill from another. For example, although<br />

both are even rhythms, a rhythm needed for walking can be<br />

considered very different from a rhythm needed for jogging when<br />

the speed is concerned. Rhythm needed for these two skills is even<br />

more different from an uneven, a rhythm needed for galloping.<br />

Some sport skills have similar temporal patterns, such as the swing<br />

pattern of a volleyball spike and the serve in tennis. Thus, when<br />

one is mastered, mastery of the second follows with ease. Not until<br />

one can perform a motor skill with its unique rhythm can he or she<br />

be confident about mastering the skill.<br />

RELATIVE TIMING AND RHYTHM<br />

Relative timing is the theoretical concept that corresponds<br />

with rhythm. Relative timing inclusively refers to the relative ratio<br />

of timing components of a skill (Schmidt & Lee, 2005). To illustrate,<br />

let’s look at the rhythm of walking. The alternative pendulum<br />

motion of the two steps is equal, making the relative timing of<br />

walking a 1:1 ratio. Relative timing has been analyzed in theoretical<br />

experiments by having participants perform similar movements<br />

122


RELATIVE TIMING AND RHYTHM<br />

such as finger tapping with the target goals of 1500ms (from the<br />

first point to the second point) and 750ms (from the second point to<br />

the third point), making the relative timing a 2:1 ratio. Relative<br />

timing is proposed in Schmidt’s Schema Theory as one of the<br />

invariant features that distinguish one category of movement from<br />

another (Coker, 2009). In an effort to explain how motor skills were<br />

controlled and executed, Schmidt’s schema theory has received the<br />

most attention and has been explored in a number of empirical<br />

studies from different disciplines (Shea & Wulf, 2005).<br />

Temporal structure, relative timing, or phasing, is the<br />

marker of motor patterns supported by studies conducted to help<br />

researchers find ways to facilitate effective learning of motor skills<br />

in the laboratory and in practical settings (Schmidt & Lee, 2005).<br />

Franks and Stanley (1991) used computer-generated waveform<br />

tracking was chosen as the task to examine what is learned during<br />

motor skill acquisition. Results of the study supported the notion of<br />

“invariant relative timing” among the content acquired. Similarly,<br />

Hay and Schoebel (1990) used the track event hurdles to examine<br />

the temporal invariants concept in a real world activity. With<br />

empirical support of relative timing as one of the invariant features<br />

learned though practice, it was proposed that mastering the<br />

rhythmic component (or relative timing) of a skill is a critical step<br />

toward skill acquisition (Singer, 2000).<br />

SUGGESTIONS FROM RESEARCHERS TO ENHANCE RELATIVE<br />

TIMING LEARNING<br />

Researchers have devoted time and effort to test the<br />

generalized motor program (GMP, a class of abstract representation<br />

of similar movement plans stored in memory) theory (Coker, 2009).<br />

Relative timing, as a primary invariant feature, has been tested in<br />

several studies. Empirical data support the notion that relative<br />

timing can be strengthened by use - constant practice, use - blocked<br />

practice, reduced feedback frequency, and provision of visual and<br />

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RELATIVE TIMING AND RHYTHM<br />

auditory models (Han & Shea, 2008; Lai, Shea, Bruechert, & Little,<br />

2002). The use of auditory models has been generalized to several<br />

practical settings, rapid pistol shooting (Rose & Tyry, 1994),<br />

rhythmical dance routine learning (Wuyts & Buekers, 1995),<br />

swimming (Wang & Hart, 2005), and football kicking(Butcher,<br />

2003) and has been to shown to be an effective teaching strategy.<br />

Clearly, teaching rhythm, especially for beginners, helps students<br />

acquire sport skills which have a rhythmical component. The<br />

following general guidelines explain how each of these suggestions<br />

can enhance relative timing/rhythm acquisition.<br />

1. Demonstrate the skill and provide auditory cues to invite<br />

students’ attention to the rhythm (e.g. in performing the<br />

flutter kick swimming skill, ask students to close their eyes<br />

and listen to the splashing water sound).<br />

2. Practice the skill for certain period of time with short resting<br />

intervals (e.g. golf driving skill practice is arranged to be about<br />

10-15 drives for one set with 2-3-min rest in between sets).<br />

3. Practice independently the skill to be learned (e.g. introduce<br />

only the target skill to be learned to beginners, add others<br />

skills later, teach skill one at a time).<br />

4. Decrease total feedback and also minimize the amount of<br />

feedback being provided to enhance the rhythmical<br />

component learning (e.g. limit comment on students’<br />

performance except motivational feedback such as “good job”<br />

or “excellent try”). If feedback is needed to correct a<br />

movement, use precise and simple cue word to re-introduce<br />

the skill.<br />

GUIDELINES TO TEACH VOLLEYBALL SPIKING APPROACH SKILL<br />

How can the volleyball spiking approach skill be taught<br />

more effectively? When the spiking skill is introduced, especially<br />

with beginners, the approach skill should to be taught as a special<br />

session.<br />

124


RELATIVE TIMING AND RHYTHM<br />

1. Introduce the movement by demonstrating the step-step-close<br />

movement. At the same time, direct students’ attention to the<br />

rhythm of the movement by having them close their eyes and<br />

listen to the rhythmic sound of the footsteps.<br />

2. Have students practice the movement (step-step-close) by<br />

itself for certain trials (e.g. 10 practice trials in a row for 5<br />

times with 1 min rest in between).<br />

3. Do not interfere the movement acquisition by introducing<br />

other skills. By organizing practice using the aforementioned<br />

guidelines, we are constructing the learning environment with<br />

constant practice in a blocked fashion.<br />

4. Withhold feedback on how students’ performance as much as<br />

possible at the beginning stage of learning. That is limit<br />

feedback providing frequency to a very low level (use general<br />

positive feedback for encourage purposes) and re-visit the<br />

correct rhythm. If possible, have students listen to their own<br />

footsteps and compare with the modeled rhythm. In total,<br />

these efforts facilitate organizing the blueprint of the<br />

movement.<br />

Let’s help John with his volleyball spiking approach skill. As<br />

the instructor, ask John to concentrate only on the spiking approach<br />

skill rather than also working on serving, passing, or spiking skills.<br />

1. To start off, ask John focus his attention to instructor’s feet<br />

(please wear bright colored shoes if possible) while listening<br />

to the instructor’s foot-steps.<br />

2. Have John clap his hands to the step-step-close pattern. Then<br />

have him stomping his feet (while standing in place) in<br />

performing the correct step-step-close pattern.<br />

3. Then have John practice the step-step-close approach for 10-15<br />

repetitions per set for the first 5 trials, have him repeat<br />

step=step-close as he does the movement. Practice the spiking<br />

125


RELATIVE TIMING AND RHYTHM<br />

approach skill repetitions for 5 sets with a 1-2 minute rest in<br />

between sets.<br />

4. If John is still having difficulty grasping the rhythm of the<br />

skill, ask him to again observe the instructor or another<br />

model’s spiking approach performance. Direct his attention to<br />

the rhythm of the skill (sound of the foot-steps).<br />

5. If equipment (e.g. a cell phone with recording function) is<br />

available, record John’s foot-steps and compare with the<br />

model.<br />

6. Motivate John’s efforts by telling him “Good try, John!” Limit<br />

the feedback on his performance; however, repeat the<br />

approach skill rhythm by verbally counting 1-2-3 while<br />

clapping hands with and stomping feet with the same rhythm.<br />

Relative timing, an invariant feature, is one of the critical<br />

factors establishing a GMP (Coker, 2009). Perception with regard to<br />

the importance of rhythm is shared in the area of exercise and<br />

sport. To enhance relative timing/rhythm acquisition: (a) design<br />

the practice including both auditory and visual models; (b)<br />

introduce rhythm of the skill to be learned by itself; and (c) practice<br />

the skill for set periods of time with short intervals. These<br />

recommendations are supported by data collected among college<br />

age participants. The applicability for younger age groups requires<br />

further empirical exploration.<br />

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RELATIVE TIMING AND RHYTHM<br />

REFERENCES<br />

Beek, P. J. (1992). Inadequacies of the proportional duration model:<br />

Perspectives form a dynamical analysis of juggling. Human<br />

Movement Sciences, 11, 227-237.<br />

Bennett, J. P., & Riemer, P. C. (1995). Rhythmic Activities and Dance.<br />

Champaign, IL: Human Kinetics.<br />

Butcher, L. A. (2003). 1-2-3 kick: An examination of the use of an<br />

audible rhythm pattern on kicking performance.<br />

Unpublished Dissertation: Temple University.<br />

Coker, C. A. (2009). Motor learning control for practitioners(2 nd ed.). Boston:<br />

Mc Graw Hill. Coleman, S. G. S., Benham, A. S., & Northcott, S.<br />

R. (1993). A three-dimensional cinematographical analysis of the<br />

volleyball spike. Journal of Sports Sciences, 11, 295 302.<br />

Colwin, C. (2003). Hidden factors in freestyle swimming. Swimming<br />

Technique, 40, 11-17.<br />

Drake, C., & Palmer, C. (2000). Skill acquisition in music<br />

performance: Relations between planning and temporal<br />

control. Cognition, 74, 1-32.<br />

Franks, I. M., & Stanley, M. L. (1991). Learning the invariants of a<br />

perceptual motor skill. Canadian Journal of Psychology, 45(3).<br />

303-320.<br />

Fulop, A. C., Kirby, R. H., & Coates, G. (1992). Use of rhythm in<br />

acquisition of a computer-generated tracking task. Perceptual<br />

and Motor Skills, 75, 59-66.<br />

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RELATIVE TIMING AND RHYTHM<br />

Gallahue, P. L., & Donnelly, F. C. (2002). Developmental <strong>Ph</strong>ysical<br />

Education for All Children (4ed). Champaign, IL: Human Kinetics.<br />

Han, D. W., & Shea, C. H. (2008). Auditory model: Effects on<br />

learning under blocked and random practice schedules.<br />

Research Quarterly for Exercise and Sport, 79, 476-486.<br />

Hay, L. & Schoebel, P. (1990). Spatio-temporal invariants in hurdle<br />

racing patterns. Human Movement Science, 9, 37-54.<br />

Kelso, J. A. S. (1995). Dynamic patterns: The self-organization of brain<br />

and behavior. Cambridge, MA: The MIT Press.<br />

Kirchner, G. (1981). <strong>Ph</strong>ysical education for elementary school children<br />

(5 th ed). Dubuque, IA: Wm. C. Brown Company Publishers.<br />

Lai, Q., Shea, C. H., Bruechert, L., Little, M. (2002). Auditory model<br />

enhances relative- timing learning. Journal of Motor<br />

Behavior, 34(3), 299-307.<br />

National Dance Association (1997). National standards for dance<br />

education. Reston, VA: AAHPERD.<br />

Rose, D. J., & Tyry, T. (1994) An investigation of the relative<br />

effectiveness of auditory and visual models in the early<br />

acquisition of rapid-fire pistol technique. Journal of Movement<br />

Studies, 26, 87-99.<br />

Schmidt, R. A, & Lee, T. D. (2005). Motor control and learning: A<br />

behavioral Emphasis(4 ed.). Champaign, IL: Human Kinetics.<br />

Schmidt, R. A., & Wrisberg, C. A. (2008). Motor learning and<br />

performance (4ed.): Champaign, IL: Human Kinetics.<br />

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RELATIVE TIMING AND RHYTHM<br />

Shea, C. H., Lai, Q., Wright, D. L., Immink, M., & Black, C. (2001).<br />

Consistent and variable practice conditions: Effects on<br />

relative and absolute timing. Journal of Motor Behavior, 33(2).<br />

139-152.<br />

Shea, C. H. & Wulf, G. (2005). Schema theory: A critical appraisal<br />

and reevaluation. Journal of Motor Behavior, 37(2), 85 – 92.<br />

Singer, R. N. (2000). Performance and human factors:<br />

Considerations about cognition and attention for self-paced<br />

and externally-paced events. Ergonomics, 46 (10), 1161 – 1680.<br />

Wang, L. & Hart, M. (2005). Influence of auditory modeling on the<br />

learning of a swimming skill. Perceptual and Motor Skills, 100,<br />

640 – 648.<br />

Wuyts, I. J., & Buekers, M. J. (1995). The effect of visual and<br />

auditory models on the learning of a rhythmical<br />

synchronization dance skill. Research Quarterly for Exercise<br />

and Sport, 66, 105-115.<br />

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