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ANWASIA ANTHONIA IFEOMA PG/MSC/11/58393 PRODUCTON EFFICIENCY OF SMALL SCALE BROILER FARMERS IN DELTA STATE, NIGERIA Faculty of Agriculture Agricultural Economics Chukwueloka.O. Uzowulu Digitally Signed by: Content manager’s Name DN : CN = Webmaster’s name O= University of Nigeria, Nsukka OU = Innovation Centre

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ANWASIA ANTHONIA IFEOMA

PG/MSC/11/58393

PRODUCTON EFFICIENCY OF SMALL SCALE

BROILER FARMERS IN DELTA STATE, NIGERIA

Faculty of Agriculture

Agricultural Economics

Chukwueloka.O. Uzowulu

Digitally Signed by: Content manager’s Name

DN : CN = Webmaster’s name

O= University of Nigeria, Nsukka

OU = Innovation Centre

PRODUCTON EFFICIENCY OF SMALL SCALE BROILER FARMERS

IN DELTA STATE, NIGERIA

BY

ANWASIA ANTHONIA IFEOMA

PG/MSC/11/58393

A DESSERTATION SUBMITTED TO THE DEPARTMENT OF

AGRICULTURAL ECONOMICS, FACULTY OF AGRICULTURE,

UNIVERSITY OF NIGERIA, NSUKKA IN PARTIAL FULFILMENT OF

THE REQUIREMENT FOR THE AWARD OF MASTERS DEGREE

(M.Sc) IN AGRICULTURAL ECONOMICS

DECEMBER 2015

CERTIFICATION

Anwasia, Anthonia Ifeoma. A post graduate student in the Department of Agricultural

Economics with registration number PG/MSC/11/58393 has satisfactorily completed the

requirement for the Masters of Science in Agricultural Economics. The work in this

dissertation is original and has not been submitted in part or in full for any other diploma or

degree of this or any other university.

Dr. A.A Enete Prof. S.A.N.D Chidebelu

(supervisor) (supervisor)

Date: _________________

Date:__________________

Prof. J.S. Orebiyi

(External Examiner)

Date:___________________

DEDICATION

This work is dedicated to the Lord Almighty who guided me during this programme.

Also to my parents

Chief and Mrs Benjamin ANWASIA jp

ACKNOWLEDGEMENT

First and foremost, am particularly grateful to God Almighty, my source of strength

and help for his mercy and grace upon me throughout the course of this study. A sincere

appreciation to a laudable supervisor, Prof. E.C. Okorji for his special interest in my success,

support, contribution, guidiance, willingness, patience and fatherly encouragement during all

the stages of this work.

To the lecturers in my Department, Prof S.A.N.D Chidebelu, Prof. C.J. Arene, Prof.

C.U Okoye, Prof. (Mrs) A.I Achike, Prof. N.J. Nweze, Dr. A.A Enete, Dr. F.U Agbo, Dr.

B.C. Opkukpara and a host of others. I say thank you for your encouragement, suggestions

and constructive criticism during my proposal and thereafter.

To my family and friends for their financial support, encouragement and prayers

during my course of study. And also to Dr Chukwuji for his help and support during the

analysis of my research work.

ABSTRACT

This study examined the Production Efficiency of Small Scale Broiler Farmers in Delta State,

Nigeria. The specific objectives were to estimate the technical efficiency of small scale

broiler farmers and identify factors that influence technical efficiency among broiler farmers.

The Study used multistage random sampling technique. A structured questionnaire was used

to obtain information from a randomly selected sample of 120 small scale broiler farmers

from Delta State, Nigeria. Descriptive Statistics, stochastic frontier production function and

inefficiency effect model were used in analyzing the data. Among the findings were that 40%

were aged between 21 and 30 years. 58% were male head households. 68% were married

while 97% had formal education either at primary, secondary or tertiary level. The average

household size was 6. 52% had farming experience between 6 and 1o years, with a mean

experience of 8 years. 68% used the deep litter system. 33% had a stock size of between 41

and 60 broilers while 56% raised their birds for only 12 weeks. 60% of the respondents

acquired land by place of residence. 85% bought feeds from the feed millers, 77% used

personal savings while 78% used family labour. The stochastic frontier analysis showed that

stock of bird and value of feed had positive sign and highly significant at 1% level of

probability. The computed mean technical efficiency was 78% while the minimum and

maximum efficiencies were 56% and 99% respectively. The technical inefficiency model

showed that age and educational level had significant inverse relationship with technical

inefficiency while credit access had significant positive relationship with technical

inefficiency.

TABLE OF CONTENTS

Title page i

Certification ii

Dedication iii

Acknowledgment iv

Abstract v

Table of contents vi

CHAPTER ONE: INTRODUCTION

1.1 Background information 1

1.2 Statement of Problem 5

1.3 Objectives of the study 6

1.4 Research hypothesis 7

1.5 Justification of the study 7

CHAPTER TWO: REVIEW OF RELATED LITERATURE

2.1 Poultry development in Nigeria 9

2.2 Poultry Sub-sectors in Nigeria 10

2.3 Definition of Poultry 11

2.4 Small scale poultry production 11

2.5 Management of poultry Enterprise 12

2.6 Feeds/Nurition 13

2.7 Diseases and health control of poultry production 16

2.8 Productive efficiencies and their determinants: Empirical Evidence 17

2.9 Theoretical framework 20

2.10 Analytical framework 23

CHAPTER THREE: RESEARCH METHODOLOGY

3.1 The study Area 28

3.2 Sampling Procedure 29

3.3 Method of Data Collection 29

3.4 Data Analysis 30

3.5 Model Specification 30

3.5.1 The Stochastic Frontier Production Function 30

3.5.2 Inefficiency Model 31

CHAPTER FOUR: RESULT AND DISCUSSION

4.1 Socio-economic characteristics of the respondents 32

4.2 Management practices and acquisition of resources of the respondents 36

4.3 Efficiency Results 38

4.4 Determinants of Technical Efficiency in Broiler Production 39

4.5 Technical Efficiency Estimates 41

4.6 Constraints on Broiler Production 42

CHAPETER FIVE: CONCLUTION AND RECOMMENDATIONS

5.1 Summary of major findings 44

5.2 Conclusion 45

5.3 Recommendations 46

5.4 Contribution to Knowledge 46

5.5 Area of further Research 47

REFERENCES 48

CHAPTER ONE

INTRODUCTION

1.1 Background of Study

Food production in Nigeria has not kept pace with its population growth, because the

population is growing at about 3.2% per annum while food production is at about 2.0%

(National Bureau of Statistics, [NBS] 2011). The differences between the rate of food

production and population growth has led to a food demand supply gap thus leading to a

widening gap between domestic food production and total requirement, an increase resort to

food importation and high rate of increase in food prices and as a result, wide spread hunger

and malnutrition are evident in the country (Ojo, 2003).

Nigeria’s poultry industry has its root in the initiative of regional governments from

the 1960’s when the Western Regional Government entered into joint pilot poultry

production schemes with some foreign partners, notably the Israeli government (Adene &

Oguntade, 2006). The entry of private investors into poultry production in the late 1960s to

early 1970s marked the onset of indigenous commercial poultry industry. It then spread from

the west to the eastern region and parts of the Northern region. The first decade or so of this

period witnessed a tremendous growth in the industry, especially in the West (Adene &

Oguntade, 2006). The size of the industry grew from less than 1million in the mid-1960s to

over 40 million by the early parts of the 1980s. All along, the growth of the industry had been

propped on by government initiatives and incentives especially in terms of training,

technological support, input support services and others. Thus for example, many of the

poultry technical staff were products of government subsidizing training programmes, while

inputs like vaccines and diagnostic services were subsidized by government or even free

initially (Adene & Oguntade, 2006). Meanwhile the national economic climate was enjoying

a boost from the newly advancing petroleum sector and this visibly helped to propel national

investment sector, including poultry rapidly forward. As from this time, the poultry industry

had started to be self-supporting, viable and attractive to financial institutions.

However, few major glitches truncated the growth path of the industry, which was

transiting from small-scale hybrid broilers and layers and backyard poultry enterprises/semi-

commercial to medium scale commercial enterprises. First, was the very high input cost

especially feed of broilers, which was recorded to constitute over 51% of total cost of

production (Effiong & Onuekwusi, 2006). This partly resulted from policy inconsistencies of

the Government. During the Structural Adjustment Programme (SAP) between 1987-1994,

the industry almost collapsed due to the ban on raw materials for the poultry industry. This

was followed by guided deregulation in 1994, which resulted in a breakthrough and

subsequent increase in poultry meat production from 63,000MT in 1994 to 73,000MT in

1995, 1997. In 1998, the Federal budget threw open the importation of live chilled frozen

chicken and egg at a tariff of 150%, which was later reduced to 55% in 1999. This led to

reduction in local production which fell to 1.3% as compared with 2.7% in 1997. Similarly,

the shift in lending policies in favour of food crops as against livestock industry exacerbated

the situation. In this dispensation, banks were directed to increase lending to 50% for food

crops production and distribution, 15% to livestock and 35% to other agricultural crops

Onyeagocha, Ehirim, Emenyonu, Onyemauwa, & Nwosu (2010).

The importance of poultry to national economy cannot be over emphasized as it has

become popular for the small-holders that have contributed to the economy of the country. In

Nigeria, poultry contributes about 15 percent of the total annual protein intake with

approximately 1.3kg of poultry products consumed per head per annum Ologbon & Ambali

(2012). The poultry industry has assumed greater importance in improving employment

opportunities and animal food production in Nigeria. An earlier report by Mbanasor (2002)

showed that about 10 percent of the Nigerian population is engaged in poultry production,

mostly subsistence and small or medium sized farms.

Broiler production is carried out in all parts of the country, with no known religious,

social or cultural inhibitions associated with their consumption. Specifically, investment in

broiler enterprises is attractive because the production cost per unit is low relative to other

types of livestock, poultry meat is very tender and commonly used in ceremonies compared

to other birds and broiler enterprises have short production circle. Owing to these obvious

advantages of broiler enterprises, large number of farmers, men and women go into their

production, many of whom do so for income generation purposes (Nwajiuba and Nwoke,

2000), besides meeting the protein needs of the household. The evidence of this is the

preponderance of producers–hawkers of broiler products in the urban and rural markets

particularly during festive periods, when their demands are highest and selling prices

favorable.

Most of the small-scale broiler farmers in Delta State are rural dwellers and often rear

other livestock such as, turkey, goats, ducks and pigeons alongside broilers (Delta State

Ministry of Agriculture and Natural Resources, [DSMANR] 2010). Small scale broiler

farming in Delta State is constrained by various factors ranging from lack of technical

knowhow, disease outbreak, high cost of poultry equipment, day-old chicks, drugs, feeds and

capital take off Ike & Udeh, (2011) which leads to low output.

Broiler production like any other economic venture is dependent on resource inputs.

As noted by Etim and Udoh, (2007) maximum poultry production depends partly on the

environment, technical know-how and the quality of resources employed in the production

process. But to optimize production and ensure sustainability, there is need for judicious

management of the resources employed in the broiler enterprise. Inefficiency of resource use

and utilization can seriously jeopardize and hamper food production and availability.

The term efficiency can be described as a process that uses the lowest amount of

inputs to produce greatest amount of output. Thus efficiency simply means reducing the

amount of wasted inputs. The modern theory of efficiency dates back to the pioneering work

of Farell, (1977) who proposed that the efficiency of a farm consist of technical and

allocative component and the combination of these two components provide a measure of

total economic efficiency (overall efficiency). As noted by Yao & Liu (1998) technical

efficiency, which is the main focus of this study, is the ability to produce maximum output

from a given set of inputs, given the available technology, Economics Dictionary, (2012) also

defined Technical efficiency as the effectiveness with which a given set of inputs is used to

produce an output.

The crucial role of efficiency in increasing agricultural output has been widely

recognized by researchers and policy makers alike (Nwaru, 2005; Ike and Inoni, 2006 Ike,

2008; Okoye, 2006). Indeed, considerable efforts have been devoted to the analysis of farm

level efficiency in developing countries. An underlying premise behind most of the work of

efficiency is that if farmers are not making efficient use of existing technologies, then efforts

designed to improve efficiency would be more cost effective than introducing new

technologies as a means of increasing agricultural output (Effiong, 2005; Ike, 2008). The

focus of this study is on the assessment of technical efficiency of small scale broiler farms in

Delta State, Nigeria.

1.2 Statement of problem

Poultry production in Nigeria is largely in the hands of our local producers who

produce mainly for home consumption with little for sale to other consumers. In 2002, the

Federal Government banned the importation of poultry products into the country. This posed

a greater pressure and challenge to our local farmers to produce commercially so as to meet

the ever-increasing demand of poultry products in our diet. Protein obtained from poultry

products (meat and egg) is needed for the growth and development of the entire populace,

thus increases the standard of living and income of the poultry farmer.

Presently, the industry has been adversely affected by major problems associated with

the raising of broilers such as their susceptibility to diseases and sensitivity to feeding and

other environmental factors such as temperature, ventilation, light and sound (Adebayo &

Adeola 2005). Study by Ojo (2003) revealed that, the industry falls short of its aim of self-

sufficiency in animal protein production in the country. Annual protein consumption is put

at 5gm/capita per day which is a far cry from FAO recommended level of 35gm/capita per

day. Also, in the past years, many small-scale operators in the poultry industry have been

forced out of business due to problems ranging from shortage and high cost of feed, high

cost and inadequate veterinary services and drugs, poor quality of equipment and other

inputs. Lack of proper management in terms of feeding, housing, health care and traditional

methods used by poultry farmers among other factors are responsible for the low

productivity. Ajibefun, (2006) says that inefficiency is a problem in raising production and

productivity in Nigerian Agriculture. The issue of efficient choice and use of

resources/technology has received less attention in developing country like Nigeria. Feder,

Just., & Zilberman (1985) says that unless an existing technology is fully utilized, benefits

from new technology may not be realized thus it is possible to raise output of broiler farmers

if new technologies are the targets of farmers.

Other problems include rising cost of the major inputs such as feeds, drugs, and

equipment (Sekoni, 2002) which is a constant set back in poultry industry. Also, the storage

of poultry products is another problem, which is largely due to epileptic power supply and as

such farmers incur extra cost of hiring generators in order to avoid the spoilage of these

products.

Although available literature shows that many studies have been done on poultry

production, but the attention was more on the economic analysis of poultry broiler farming

(e.g Ugbome, 2006; Amos, 2006, Bamiro, 2008; Adebiyi, 2000; Ojo, 2003; Adebayo and

Adeola, 2005). Some others looked at the Profit Efficiency in Broiler Production (Effiong

and Onyenweaku. 2006; Oladeebo and Ambe-Lamidi 2007; Okafor, Odii, Emeyonu & Obih

2006). Little or nothing has been done to look at the technical efficiency and factors

influencing technical efficiency among small scale broiler farmers especially in Delta State.

Therefore, this study seeks to estimate the technical efficiency of small scale broiler farmers

and identify those factors that determine their level of technical efficiency in Delta State,

Nigeria.

1.3 Objectives of the study

The broad objective of the study is to assess the technical efficiency of small scale

poultry (broiler) farmers in Delta State.

The specific objectives are to:-

i. describe the socio-economic characteristics of small-scale broiler farmers;

ii. describe the management practices and identify method of acquisition of

production resources of small scale broiler farmers;

iii. estimate the technical efficiency of small scale broiler farmers;

iv. identify factors that influence technical efficiency among broiler farmers;

v. identify the constraints associated with broiler production;

1.4 Research Hypotheses

The following null hypotheses was tested:

i. Socio-economic characteristics of small scale broiler farmers do not significantly

affect their technical efficiency in the study area.

ii. Institutional variables of small-scale broiler farmers have no significant influence

on the farmer’s technical efficiency.

1.5 Justification of the study

Small-scale broiler farmers with low literacy level, lack of credit, capital and

infrastructure and poor extension services have difficulties in understanding and adopting

new technologies which often require good and relevant education and good extension

services Kebede, (2001). To turn the situation around, there is need for small-scale broiler

farmers to understand and adopt new technologies so as to enhance farm output and income.

Output growths are however not only determined by technological innovations but also by

the efficiency with which available technologies are used (Bravo-Ureta & Evenson, 1994).

Therefore the study of the present level of efficiency and the identification of factors

influencing technical efficiency among small-scale broiler farmers is necessary.

This research is directed, at providing information that would assist small scale broiler

farmers on how best to attain efficiency in broiler production and furnish them with

information on the factors that influence technical efficiency in production, this will enable

them to be well armed before going into the business. The issue that white meat provides a

more healthful alternative to red meat because of the higher proportion of unsaturated fatty

acids than saturated fatty acids contained in white meat and the fact that white meat does not

contain the Trans fats that contribute to coronary heart disease, which can be found in high

quantity in red meat also justifies the need for this study.

In addition, this study will enable Government bodies to identify problems faced by

small scale broiler farmers on the efficiency of input use and to be able to come up with

interventions on how the situation can be turned around. Also, measurement of the extent and

determinants of technical efficiency differentials indicate which aspect of farm and farmers

characteristics can be addressed by public and private investor to improve efficiency and

hence will improve their standard of living.

In order to design appropriate policies that will bring about an efficient broiler

production, there is need to carry out a study on efficiency in broiler production in Nigeria.

This will greatly enable policy makers to identify constrains and potential areas for its

improvement considering the need to enhance protein intake.

Furthermore, this study differs from the previous ones conducted in the country as it

will assess the technical efficiency and the determinants of technical efficiency of small

scale broiler farmers in Delta State. Hence, the findings of the study will be a reliable

quantitative result and source of reference to policy makers to adequately make relevant

policies that would promote broiler production in Delta State. It will equally contribute to

the general body of knowledge in the study area.

CHAPTER TWO

REVIEW OF RELATED LITERATURE

The related literature of this study will be reviewed under the following subheadings:

2.1 Poultry development in Nigeria

2.2 Poultry sub-sectors in Nigeria.

2.3 Definition of poultry

2.4 Small scale poultry production

2.5 Management of poultry enterprise

2.6 Feeds/Nutrition

2.7 Disease and health control of poultry production

2.8 productive efficiencies and their determinants

2.9 Theoretical framework

2.10 Analytical framework

2.1 Poultry development in Nigeria

In Nigeria, poultry industry is fast growing as the demand for chicken products is

increasing. A report of UNISPAR/UNESCO-sponsored projects carried out at the National

Centre for Energy Research and Development, Nsukka, Nigeria on raising healthier poultry

(NCERD, 2000) stated that about 10% of Nigerian population is engaged in poultry

production of varying sizes and it is one of the avenues that can be explored for poverty

alleviation and eradication. In recent decades, there is significant progress in genetic selection

of fast-growing meat-type chickens (Abioja, 2010) which has led to the production of broiler

chickens that will weigh over 2kg at six weeks of age with 3.5kg of a balanced diet compared

with 2kg in fourteen weeks with 10kg feed in the 1930s (Smith, 2001). Most of the present

day improved strains of chickens were introduced from the temperate regions to the tropics.

2.2 Poultry sub-sectors in Nigeria.

There are two distinct poultry production systems in Nigeria, as in most developing

countries of Africa and Asia. Each of these two systems is associated with features of scale,

stock, husbandry and productivity that therefore define the two distinct production systems.

The two systems are conventionally referred to as the commercial poultry and the rural

poultry, respectively (Adene and Oguntade, 2006). The Commercial Production System as

the name implies is industrial in its prototype and therefore based on large, dense and uniform

stocks of modern poultry hybrids. It is capital and labour intensive; as well as inputs and

technology demanding. On the other hand, the Rural Poultry is by convention a subsistence

system which comprises stocks of non-standard breeds or mixed strain, types and ages. It is

generally of small scale, associated with household and little or no veterinary inputs. The

rural poultry sector is therefore in its original sense, a village-based, household or individual

holding and occupation which has however been extended to non-village settings in peri-

urban localities, mainly by the middle class dwellers.

Apart from a classification based on the housing scale, biosecurity level has become

the key criterion in recent literature probably due to increasing emergence and spread of

Trans‐boundary Animal Diseases (TADs) across continents. FAO (2006) defined four poultry

production sectors based on experiences in Asia as follows:

Sector 1: Industrial Integrated System with high bio-security systems.

Sector 2: Commercial Poultry Production System with moderate to high biosecurity systems

Sector 3: Commercial Poultry Production System with low to minimal bio-security systems

Sector 4: Village or backyard Production with minimal bio-security.

The main focus of this study is on the forth sector above.

2.3 Definition of Poultry

Poultry are chickens, ducks, geese, guinea fowls, turkeys and other related birds kept

for meat and egg. In Nigeria, the poultry population is estimated to be 140 million (Ocholi et

al; 2006). They are the most commonly kept livestock and over 70% of those keeping

livestock are reported to keep chickens (Amar-Klemesu and Maxwell, 2000). Chickens have

its scientific name to be Gallus domestics and it is one type of poultry. It belongs to the

family phasiendae and it is estimated to be about 69% of the total number of birds kept in

Nigeria (Sonaiya, 1990). Broilers are a type of chicken (apart from cockerels and layers) kept

for meat production and by implication a source of protein (FOA 2006). They are young

chickens suitable for boiling or roosting, at about 10 weeks old.

2.4 Small Scale poultry production

For industrial poultry production to express their full genetic potential, certain basic

requirements must be provided. These include environment, good management, balanced

rations and adequate housing (Akinwumi and Ikpi, 1979). These facilities can be provided

through adequate capital base, which is lacking in Nigeria. High cost of feeds, poor quality of

day old chick (DOC), inadequate extension and training agents has been the bane to industrial

poultry production making family poultry production in Nigeria popular.

Family poultry at 104million out-number all other livestock in Nigeria. Commercial

chicken holdings account for only 10million chickens or 11percent of the total chicken

population of 82.4million (Sonaiya, 2000). Families maintain the bulk of poultry in Nigeria

under low input, extensive system (Sonaiya, 1995). Family poultry are important as provider

of meat and egg. It is generally assumed that family poultry production systems are

economically efficient because, although the output from the individual bird is low, the inputs

are usually lower (Sonaiya, 2001). This assumption has not been properly investigated using

econometric model. The econometric investigation is very important in transforming family

poultry production system. According to (Kitalyi,1998), the transformation of family poultry

into economically viable enterprise would require better understanding of the socio-economic

aspects of the production system. This is consistent with the view of Sonaiya, 2000 who said

that as the socio-economic importance of family poultry is being recognized, economic

analysis is required to identify and evaluate problems and plan appropriate intervention

2.5 Management of poultry enterprise

Management may be regarded as the art of utilizing all the available resources at the

disposal of the entrepreneur for effective production. The most pressing goal of any

enterprise is profit maximization in which poultry production is not an exception. This cannot

be possible without effective decision making, supervision and coordinating ability of the

entrepreneur. Ngoka et al (1983) noted that the amount of profit made in poultry production

depends primarily on good management. They further observed that people were increasingly

becoming aware of the need to have skilled manpower to run poultry production operations.

Would-be poultry farmers now accord high priority to training their own poultry operators

before actually beginning production.

On the issue of management system, Kekeocha (1984) observed that the type, the area

and the location of the farm, the economic status and understanding of the farmer help to

determine which system is used. According to him, extensive system is suitable where large

area of land is available and requires minimum capital investment but are usually associated

with high mortality rate due to prey by wild animals. Intensive system involves high capital

investment and labour but have lower mortality rates if diseases are controlled and makes for

easy record keeping. The semi-intensive system according to him combines both the

advantages and disadvantages of extensive and intensive systems.

On account of cleanliness, Ikeme, (1990) noted that good sanitary measures prevent

infection and spread of diseases. Where portable water does not come in automatic water, or

when there is non-continuous flow of water, water containers should be cleaned at least twice

a day. The feed troughs should be cleaned at least twice a week. The birds are allocated to eat

up the feed in the trough to avoid wastage. Clean surroundings, disinfections and

disinfestations of the whole poultry house are necessary periodically.

Another important aspect of management is record keeping which many poultry

farmers in Nigeria handle with levity. Most of them may keep records but such records may

be inappropriate and inaccurate. In line with this, Dovel (1996) concluded that,

inappropriateness is a major factor in explaining the poor adaption or level of record keeping

and certain success parameters but especially in perceived appropriateness and aspiration of

poultry farmers who in general regard the recommended level of record keeping to be

unnecessarily sophisticated and detailed.

Omotosho and Ladele (1986) observed that government and individuals pump money

into poultry but receive poor returns. They further ascertained that many producers lack the

technical know-how of the business and as such perform below expectation.

2.6 Feeds/Nutrition

Obioha (1992) noted that since poultry was kept by man for the purpose of providing

edible animal products which could be exchanged for cash. It was therefore worthwhile to

remember and furnish both the maintenance and production requirements of the animal,

which ensured that the animal stayed alive, grew and reproduced. According to him, balanced

diet or good nutrition was primarily used:

- to maintain and perform such normal physiological functions of life such as mobility,

respiration, metabolism and muscular activities;

- to store up excess materials as meat, egg and energy which may be used for

production work; and

- to increase the resistance of poultry to diseases.

On the account of feed costs, Oluyemi and Roberts (1979) observed that the most

important limiting factor in the expansion of the poultry industry in Nigeria was high cost of

feed ingredients particularly grains. According to them, the importation of feeds into a

country usually increases the cost of feeds. They went further to say that because there were

no feed quality controls in Nigeria, the quality of feeds commercially available could not be

guaranteed. The low quality feeds undoubtedly contributed to the low performance of poultry

in Nigeria, which in turn was a factor in the high cost of poultry products (Kekeocha, 1984).

Abdulrahim and Salem (1996) ranked the cost of feed as the highest in terms of production

cost while chick cost, medicine and vaccine were ranked second and third respectively.

Therefore, the cost of feed accounts for 70-80 percent of the total production cost.

Feed is said to be the most important input for profitable poultry production, however it

has continued to be a problem to most poultry farmers. The main obstacle to livestock

improvement apart from the incidence of ectoparasite and disease in the country is that of

inadequate and unbalanced feeding (oyenuga 1996 and Eruvbetine, Aiyedum, & Kusumo,

1999).

It is found that most poultry farmers in Nigeria compound poultry feed themselves but

according to Saleh (1995), domestic production of feed resources do not still meet

consumption needs. Therefore, the high percentage of feed in the cost of production as earlier

mentioned shows that, the importance of feed in poultry production cannot be over-

emphasized.

2.7 Disease and health control of poultry production

Major disease of poultry in Nigeria that have been predominantly identified in

commercial poultry are Newcastle disease (ND). Infectious bursal disease (IBD) or

Gumboro, Marek disease (MD), fowl typhoid, cholera, mycoplasmosis and coccidiosis

(Adene, 2006). Other health problems in poultry production are external and internal

parasites. A study on ectoparasites of domestic fowls in Nigeria showed that lice,

Menacanthus straminen, was the major problem in rural poultry (Zaria, Sinha, Natiti, &

Nawathe, 1993). In this Nigerian study, the external parasite problem was associated with

season – higher rates of infestation occurred during the rainy season. A study on the

incidence of worms in chicken farms in Nigeria found that the most common species were

Ascardia galli, Prosthgonium spp, Strongyloids avium and Heterakis gallinarum Tano,

(1995).

In view of the above, it is not surprising that Newcastle disease is the most researched

disease in poultry production. There is a literature on the epidemiology and control on ND as

reviewed by Alexander (1991) and Awan (1993). In 1991, FAO sponsored an international

workshop on production and quality control on ND vaccines for rural Africa (Rweyemamu et

al, (1991). Recently, there has been increasing concern on control of ND in poultry

production, stimulated by the introduction of a thermostable orally administered vaccine

(V4) in southeast Asia, mainly supported by ACIAR (Copland, 1987).

Alexander (1991) noted that global regulation and control of ND is influenced by the

growing multinational poultry trading industry involving poultry products and genetic stock.

Furthermore, uncertainties associated with different countries making an open declaration of

ND to international agencies such as the International Office of Epizootics (IOE) has limited

worldwide control of the disease. Major factors associated with the transmission of ND in

poultry production are exposure to the natural environment, including wild fauna; flocks of

various ages and susceptible new hatches (Chabeuf, 1990; Olabode et al., 1992); and contact

through either exchange of live chickens and products or movement between households and

villages. In an experiment to study transmission of ND in poultry production, Huchzermeyer

(1993) ruled out airborne spread of ND in poultry production in the tropics, and asserted that

transmission is mainly through contact. Similarly, Martin and Spradbrow (1992) noted that

transmission by air is unlikely, because a larger number of birds are necessary to generate

sufficiently dense aerosol for such transmission. Therefore, bird-to-bird contact would seem

to be the mode of transmission in tropical and subtropical production system.

The recent development and use of thermostable vaccine (NDV4) has created fresh

interest for the control of ND in poultry production (Copland, 1987; Spradbrow, 1990;

Spradbrow and Samuel, 1991). In Africa, a number of countries have introduced the vaccine

on a trial basis. A major concern has been the identification of appropriate food carriers to

introduce the vaccine. Virucidal activities of some grains that reduce the effectiveness of the

vaccine have been reported by Rehmani, Spradbrow and Wes (1995). The development of

poultry health programmes requires reliable information on the epidemiology of diseases,

which is lacking in poultry production systems (Pandey, 1993). Disease surveillance is

further limited by poor infrastructure and comminucation, as well as inadequate diagnostic

facilities.

2.8 Productive efficiencies and their determinants

Several studies have identified several factors influencing the productive efficiency of

either livestock or food crop farmers. Thus some of these studies are hereby reviewed in this

section.

Ajibefun, (2006) used the translog stochastic frontier production function to analyze

and link the level of technical efficiency of Nigeria small scale farmers to specific farmer’s

socio economic and policy variables. The result showed that while farmers socio-economic

and policy variables significantly influenced the level of technical efficiency, education has

the highest marginal effect. The highest mean technical efficiency of 0.77 occurs among

group of farmers within 7-12 years of schooling (secondary school education group) while

the least mean technical efficiency (0.54) occurs within the category of farmers with years of

schooling within 1-6years. It implies that technical efficiency has a direct relationship with

years of schooling.

Battese and coelli (1995) defined a stochastic frontier production function (SFPF) for

panel data for india farmers and the technical inefficiency were assumed to be a function of

firm- specific variables and time. The hypothesis that inefficiency effects are not a linear

function of age and schooling of farmers as well as years of observation was rejected.

Yusuf and Malomo (2007) applied a two stage estimation approach (Data

Envelopment Analysis and OLS regression) to determine the TE of small, medium and large

scale poultry farmers in Ogun state Nigeria. They reported mean TEs of 0.8877, 0.8687 and

0.8638 for farmers with large, medium and small scale farmers respectively. Years of

experience and educational level have positive effect on technical efficiency at 1 percent.

They concluded that egg production is profitable in the study are with net returns of N589,

N464.46 and N 739.56 per bird for small, medium and large scale farmers respectively.

Amata and Olayemi, (1998) investigated production efficiency in food crop

enterprises in Gombe state, Nigeria. The sample size was 123 food crop farmers and the data

was obtained through the use of multi-stage sampling technique, a stochastic frontier

production function, using the maximum likelihood estimation (MLE) was used as analytical

tool. The MLE result revealed that land, family labour, hired labour and fertilizers are the

major factors that influence the output of food crops. The effect of land area on output is

positive and coefficient found to be statistically significant at 1 percent level. The coefficient

of family labour is found to be negative but significant at 1 percent level, thus suggesting an

excessive use of family labour in food production. Hired labour and fertilizer have positive

effects on output and their coefficients are statistically significant at 5 percent level. Maize-

based enterprises are the most efficient in terms of Technical Efficiency (TE), followed by

cowpea-based enterprise with mean TE indices of 0.73 and 0.72 respectively. In terms of

Economic Efficiency (EE), cowpea-based enterprise is the most efficient with mean EE of

0.59.

Seyoum et al (1998) investigated the technical efficiency of two samples of maize

producers in eastern Ethiopia, one involving farmers within the Sasakawa-Global 2000

project and others involving farmers outside this program. The study uses stochastic

production frontier in which the technical inefficiency effects are assumed to be the farmers

in their agricultural production operation. For the cross-sectional data obtained for the

1995/96 agricultural year, Cobb- Douglas stochastic production frontiers were found to be

adequate representation of the Translog stochastic frontiers for farmers within and outside the

project. The empirical results indicate that farmers within the SG 2000 project are more

technically efficient than farmers outside the project relative to their respective technologies.

Ajibefun, et. al. (1999) investigated a stochastic frontier production in Ondo State and

the technical inefficiency effects are assumed to be a function of some farm – specific and

farmer – specific variables. For the study, data set covers 120 poultry farms and information

was collected on production inputs and outputs, with special interest in egg production. Data

was also collected on other variable which could influence technical efficiency of egg

production. Result of analysis indicates that the level of technical efficiencies varies widely

across farms, ranging between 49 percent and 85 percent, with a mean technical efficiency of

65 percent. The analysis also indicates that variables such as age and years of experience of

the primary decision maker of the poultry egg producer have significant influence on the

level of technical efficiency.

Etim, (2001) analyzed the technical inefficiency of urban farming among households

in Akwa Ibom State. Ramdom sampling technique was used to collect primary data from 70

urban farmers in Uyo and Ikot Ekpene Local Government Areas of Akwa Ibom State through

structured questionnaire. A stochastic production frontier based on Cobb- Douglass

production function was developed to capture inefficiency variables. The maximum

likelihood estimation of the stochastic production frontier revealed the presence of decreasing

returns to scale in all the physical inputs (farmland, fertilizer plantings) except labour. The

analysis also indicates that the mean technical efficiency was 69.47% with the 99.43% for the

most efficient urban farmers (27 percent) and 11.86% for the least efficient urban farmers (7

percent).

A lot more studies have been done on TE and its determinants in the field of crop

production than in livestock and fisheries in Nigeria and other countries of the world. For

instance, studies by Adesina and Djato (1996), Seyoum, Battese and Fleming (1998), Wadud

and White (2000), Weir and Night (2000), Owens, Hoddinott and Kinsey (2001), Sherlund,

Barrett and Adesina (2002), Ogundele and Okoruwa (2004), Chukwuji (2006), Ike and Inoni

(2006), Ike (2008) and many more investigated technical efficiency (TE) and determinants of

TE on various crop farmers using different farm and farmer characteristics. Their general

conclusions are that there exist reasonable degrees of inefficiencies among farmers in

developing countries (Nigeria inclusive). A summary of the factors that gave rise to the

degree of inefficiencies according to the various studies include farm characteristics such as

farm size, labour, capital, soil and weather characteristics and nature of farm tenancy. Farmer

characteristics like education, age, farming experience, extension services, off-farm

employment and household size were also identified. Thus this study will explore the

relevance of some of these factors in the determination of technical efficiency level in poultry

(broiler) production.

2.8 Theoretical framework

The theoretical frame work of this study hinges on the theory of production.

Production economics is concerned with optimization of resources and optimization implies

efficiency (Baumol, 1977). Production is concerned with the relative performance of the

process used in transforming input into output. The analysis of efficiency is generally

associated with the possibility of farms producing a certain optimal level of output from a

given bundle of resources or certain level of output at “least cost”. Farrel (1977) distinguishes

between three types of efficiency: (a) technical efficiency (TE), (b) allocative or price

efficiency (AE), and (c) economic efficiency (EE).

2.9.1 Technical efficiency

Yao and Liu (1998) defined technical efficiency as the ability to produce maximum

output from a given set of inputs, given the available technology. Technical efficiency

according to (Nwaru, 2003) refers to the ability of a given set of entrepreneurs to employ the

best practice in any industry so that not more than the necessary amount of a given set of

resources is used in producing the best level of output.

Technical efficiency (TE) in production is a measure of how close a firm is to the

maximum output level as defined by the frontier given its input level. Technical efficiency

relates actual output to the expected output based on factor endowment. The greater the ratio,

the greater is the technical efficiency of the firm. This definition of technical efficiency

implies that difference in technical efficiency between firms exists. The production function

pre-supposes technical efficiency, whereby maximum output is obtained from a given level

of input combination. Therefore, it is a factor-product relationship. An important assumption

relating to efficiency is that firms operate on the outer bound production function, that is, on

their efficiency frontier. When firms fail to operate on the outer bound production function,

they are said to be technically inefficient. For such firms an improvement in technical

efficiency maybe achieved in three ways (Heady, 1960). Firstly, technical efficiency can be

enhanced through improved production techniques. This may imply a change in factor

proportions through factor substitution under a given technology. Hence, it may represent a

change along the given production function. Secondly, technical efficiency can also be

improved through an improvement in the production technology. This represents a change in

the production itself such that the same amount of resources produce more output, or

alternatively, the same amount of output is derived from smaller quantities of resources than

before. Thirdly, technical efficiency can be improved through an improvement in both

production technique and technology.

2.8.2 Allocative efficiency

While technical efficiency is only concerned with the physical relationship between

input and output, allocative efficiency takes into account price relationship in addition to the

physical relationship. Thus, allocative efficiency is concerned with choosing optimal sets of

inputs. In this regard, a firm is allocatively efficient when production occurs at a point where

the marginal value product is equal to the marginal factor cost. [MVP = MFC]

Allocative efficiency can also be seen as the ability to combine inputs and outputs in

optimal proportions in light of prevailing prices Lovell, (1993). Ferrell (as cited in Olayide

and Heady, 1982) defined allocative efficiency as the measure of a firm’s success in choosing

an optimal set of inputs. This is an indication of the gains that can be obtained by varying the

input ratios on certain assumptions about the future price structure.

2.8.3 Economic efficiency

Economic efficiency is a situation where there are both technical efficiency and

allocative efficiency. Therefore, the achievement of either of technical efficiency or

allocative efficiency is a necessary but not a sufficient condition to ensure economic

efficiency (Ellis, 1988). The simultaneous achievement of both efficiencies however,

provides the sufficient condition for economic efficiency. The sufficient condition according

to (Heady, 1960), occurs when price relationship are employed to denote maximum profits

for the firm or when choice indicators are employed to denote the maximization of other

economic objectives. Thus, economic efficiency refers to the choice of the best combination

for a particular level of output, which is determined by both input and output prices.

2.10 Analytical framework

The level of technical efficiency of a particular firm is characterized by the

relationship between observed production and some ideal or potential production Greene,

(1993). The measurement of firm specific technical efficiency is based upon deviation of

observed output from the best production or efficient production frontier. If a firm’s actual

production point lies on the frontier, then the firm is said to be perfectly efficient in the use of

the production inputs; Sean & Ines (2002).

Farrell’s (1957) definition of technical efficiency led to the development of methods

for estimating the relative technical efficiencies of firms. The common feature of these

estimation techniques is that information is extracted from extreme observations from a body

of data to determine the best practice production frontier (Lewis and Lovell, 1990). From

this, the relative measure of technical efficiency from the individual firm can be derived.

Despite this similarity, the approaches for estimating technical efficiency can be generally

categorized under the distinctly opposing techniques of parametric and non-parametric

methods (Seiford and Thrall, 1990).

Stochastic frontier incorporates a measure of random error. This involves the estimation of a

stochastic production frontier, where the output of a firm is a function of a set of inputs,

inefficiency and error term. An often quoted disadvantage of the technique, however, is that

they impose an explicit functional form and distribution assumption on the data. In contrast,

the linear programming technique of data envelopment analysis (DEA) does not impose any

assumption about functional forms; hence it is less prone to misspecification. Further, DEA is

a non-parametric approach that does not take into account random error. Hence, it is not

subsequently subjected to the problems of assuming an underlying distribution about the error

term. However, since DEA cannot take account of such statistical noise, the efficiency

estimates may be biased if the production process is largely characterized by stochastic

elements Sean & Ines (2002). The most commonly used packages for estimating stochastic

production frontier and inefficiency are FRONTIER 4.1 (Coelli, 1996).

FRONTIER 4.1 is a single purpose package specifically designed for the estimation

of stochastic production frontier (and nothing else), while LIMDEP is a more general

package designed for a range of non-standard (i.e. Non-OLS) econometric estimation. An

advantage of the FRONTIER 4.1 is that estimates of efficiency are produced as a direct

output from the package and also able to accommodate a wider range of assumptions about

the error distribution term than LIMDEP, although it is unable to model exponential

distributions, neither can it include gamma distributions. Only FRONTIER is able to estimate

an inefficiency model as a one-step process. Sean and Ines, (2002).

This study employed the stochastic frontier model which was first proposed

simultaneously by Aigner, Lovell and Schmidt (1977); Battesse and Corra (1977); and

popularized by Forsund, Lovell and Schmidt (1980); Battese (1992), Coelli, Prasada and

Battese (1998); Kumbakar and Lovell (2000). And more recently, empirical applications of

the technique in efficiency analysis have been reported by Ojo and Ajibefun (2000); Iwala

(2006); Chukwuji (2006); Ike and Inoni (2006); Akinleye (2007); Al Hassan (2008).

A stochastic frontier production function is defined by:

Yi = f(Xi; Bi) exp Vi –Ui = 1, 2 - - - - - - - - - - n

OR Yi = o i Xi + (Vi – Ui) - - - - - - (1)

Where:

Yi is output of the ith farm; Xi is the vector of input quantities used by the ith; Bi is the vector

of production function (unknown) parameters to be estimated, f represents an appropriate

function (eg. Cobb–Douglas, Translog etc). The cobb-Douglas frontier production function

can be specified in logarithm form as:

In Yi = 0 +∑iInXij+Vi−Ui

Where: Yi, 0 i and Xi are as defined above. While a typical translog production function

in its logarithm form is denoted as:

In Yi=0 ∑iInXij ½∑∑Bij InXij (Vi –Ui).

Where: Yi, 0 i and Xi are as defined earlier, while the subscripts i and j represent ith

farmer and jth observation of the farmer.

The cobb-Douglas production function was used for this study. This is because it has

been the most commonly used function in the specification and estimation of production

frontier in empirical studies (Seyoum , Battese & Fleming (1998), Ajibefun & Abdulkadri,

(1999). It is attractive due to its simplicity and because of the logarithmic nature of the

production function that makes econometric estimation of the parameters a very simple

matter.

The term Vi is a symmetric error (ie the systemic component), which accounts for

random variation in input due to factors beyond the control of the farmer, eg. weather, disease

outbreaks etc. While the term Ui is a non-negative random variable representing inefficiency

in production relative to the stochastic frontier. The random error, Vi is assumed to be

independently and identically distributed with zero mean and constant variance N (0, δν²) and

independent of the Ui. The Ui assumed to be non-negative terms represents the deviations

from the frontier production function which is attributed to controllable factors (technical

inefficiency). It is half normal, identically and independently distributed with zero mean and

constant variance, N (0 δᴜ ²). It is further assumed that the average level of technical

efficiency measured by the mode of the truncated normal distribution (ie. Ui) is a function of

factors believed to affect technical inefficiency as shown in equation (2)

Ui = δ0 + δi Ζi -------------- (2)

Where, Zi is a column vector of hypothesized efficiency determinants (ie. the socio-economic

factors such as age, farming experience etc) and δ is the intercept and δi are unknown

parameters to be estimated. It is clear that if Ui does not exist in equation (1) or Ui = δs = 0;

the stochastic frontier production reduces to a traditional function. In that case, the observed

units are equally efficient and residual output is solely explained by unsystematic influences.

The distribution parameters, Ui and δᴜ ² are hence the inefficiency indicators of the farmer,

indicating the average level of technical inefficiency level across observational units given

functional and distributional assumptions, the values of unknown coefficients in equation (1)

and (2), ie i, δs, δᴜ ² and δν ² will be jointly estimated by the method of maximum likelihood

estimation (MLE) using the computer programme FRONTIER version 4.1 developed by

Coelli (1996). The technical efficiency is empirically measured by decomposing the deviation

into a random component (Vi) and an inefficiency component (Ui). The technical efficiency

of an individual farm-firm is defined in terms of the observed output (Yi) to the

corresponding frontier output (Y*) given available technology, that is,

TE = Yi/Yi*

= f(Xi; Bi) exp (Vi –Ui)

f(Xi; Bi) exp (Vi)

TE = Exp (-Ui) - - - - - - - - - (3)

So that, 0≤ TE≤ 1. An estimated value of technical efficiency for each observation can

be calculated as in equation (3). If TE = 1, the firm is said to be technically efficient and its

output level is on the frontier. Otherwise, ie, if TE < 1, the firm is technically inefficient

because it could have produced more outputs with the given level of inputs irrespective on

input prices.

CHAPTER THREE

RESEARCH METHODOLOGY

3.1 The Study Area

The study area is Delta State. Delta State lies approximately between longitude 50 00΄

E and 60 45΄E of the Greenwich Meridian, and latitude 50 00΄N and 60 30΄ N of the Equator.

The State has a total land area of 17,440 km2, about one third of this is swampy and water

logged, (Delta State Dairy, 2003).

Delta State is bounded in the north by Edo State, in the East by Anambra and Rivers

State and in the south by Bayelsa State. The Atlantic Ocean forms the western boundary

while the North-West boundary is Ondo State. The State is made up of 25 Local Government

Areas and has a population of 4.1 million (NPC, 2006). Delta State has a tropical climate

with distinct dry and rainy seasons. The rainy season is mainly from April to October while

the dry season is from November to March. The temperature ranges from 29 to 34ºC with an

average of about 30ºC (Delta State Ministry of Agriculture and Natural Resources, 2000).

The state is divided into 3 Agricultural zones with 25 Local Government Areas

(LGAs). The 3 Agricultural Zones include Delta North (9 LGAs), Delta Central (8 LGAs)

and Delta South (8LGAs). Delta North consist of Oshimili South, Oshimili North, Aniocha

North, Aniocha South, Ika South, Ika North-East, Ukwani, Ndokwa East and Ndokwa West.

Delta Cental consist of Warri North, Warri South-West, Warri South, Ughelli North, Ughelli

South, Sapele, Ethiope West and Ethiope East. Delta South consist of Isoko North, Isoko

South, Patani, Bomadi, Okpe, Uvwie, Udu. and Burutu.

3.2 Sampling Procedure

Multistage sampling technique was used to select respondents for study. The

respondents are farmers who rear broiler on small-scale (100 birds and below). Delta State

consists of three (3) agricultural zones. These are the Delta North; Delta Central and Delta

South agricultural zones. The three zones were used for the study.

First from each of the three agricultural zones, four Local Government Areas were

randomly selected to give a total of 12 Local Government Areas. Secondly, two communities

were randomly selected from each of the twelve Local Government Areas to give a total of

24 communities. Finally, in each community, with the assistant of a local extension

personnel, a list of small scale broiler farmers was compiled and then five (5) respondents

(broiler farmers) were randomly selected from each of the 24 communities to make a total of

120 respondents that was the sample size for this study.

3.3 Data Collection

Primary data was used for the study. This data was collected using a set of detailed

and well-structured questionnaire which consist of socio-economic factors, method of land

acquisition, management system adopted, input-output data such as data on output of broiler

production in number, source of labour, as well as production constraint. Two well-trained

and resident enumerators from each of the selected communities assisted in the

administration of the questionnaire. The questionnaires were administered to small scale

broiler farmers in the selected communities.

3.4 Data Analysis

Objectives (i), (ii) and (v) were achieved using descriptive statistics such as mean,

frequency distribution and percentages. Objective (iii) was achieved using stochastic frontier

production model and objective (iv) was achieved using the inefficiency effects model.

3.4.1 Model Specification

3.4.1.1 The Stochastic Frontier Production Function

This model was used to achieve objective iii of the study.

The Cobb-Douglas stochastic frontier production function was used for this study

because it has been widely used in agricultural studies and because of its mathematical

simplicity. It is specified thus:

In Yi = +∑iInXij+Vi−Ui - - - - - - - - (1)

Where:

Yi = Output of broiler (naira)

X1 = herd size (number of birds)

X2 = value of feeds (Naira)

X3= value of drugs and vaccines (Naira)

X4= labour (mandays)

Vi = random or statistical disturbance term which captures the effect of weather and other

factors outside the control of the farmer.

Ui = farmer and farm specific characteristics related to production efficiency (technical

inefficiency effects).

Transportation cost was not included as part of the variable for this study. The reason

is that transportation cost was not a significant factor that affects broiler production in the

study area.

3.4.1.2 Inefficiency Model

This model was used to achieve objective iv of the study.

Uij = δ0 + δ1Z1ij + δ2Z2ij + δ3Z3ij + δ4Z4ij + δ5Z5ij + δ6Z6ij + δ7Z7ij + δ8Z8ij - - - - - -

- (2)

Where:

Uij is the technical inefficiency of the ith farmer and jth observation of the farmer.

δ0 is the constant

δs are the parameters to be estimated

Z1= membership of Cooperatives Societies (number)

Z2= farmers age (years)

Z3= farmers educational level (years)

Z4= family size (number of persons in the family)

Z5= farmers farming experience measured (number of years spent in broiler farming)

Z6= access to credit by farmer (number of credit)

Z7= contact with extension service (Number of visits)

3.4.2 Hypotheses Testing

Hypotheses (i) and (ii) were tested using t-test embedded in the inefficiency model

component of the stochastic frontier production function.

CHAPTER FOUR

4.0 RESULT AND DISCUSSION

4.1 SOCIO-ECONOMIC CHARACTERISTICS OF SMALL SCALE BROILER

FARMERS

Some socio-economic characteristics of the respondents were ascertained. These includes

age, gender, marital status, level of education, household size and farming experience.

4.1.2: Age of the respondents

The frequency distribution of respondents according to socio economic characteristics

is shown in table 4.1 shows that most of the small scale broiler farmers 69% fell within the

productive age range of 21-40years. The average age of the broiler farmers was estimated to

be 36years. Therefore, for small scale broiler farmers, there is a strong tendency that

productivity will continue to rise in the mean time. The average age was about 36years which

means that small scale broiler farmers are in their prime and active age of producton. They

are likely to be productive in the next decade and broiler production in the country will likely

increase. This result disagrees with the findings of Chavanapoonphol et al. (2005) that

Thailand rice farmers were quite old of average of 51years. But this study agrees with the

findings of Otitoju (2008) which found out that small and medium scale soybean farmers in

Benue State, Nigeria have average age of about 33 and 39years respectively.

4.1.2: Sex of the respondents

Table 4.1 showed that both men and women were actively involved in broiler

production but the percentage of men were more. Men accounted for 58% while female were

about 43%. The high number of males might be attributed to hard task (such as, building of

the poultry house, changing of poultry litters, processing of fish meal/blood meal ecetera) out

in broiler production process.

4.1.3: Marital Status of the Respondents

Result from table 4.1 showed that about 68% of the respondents were married. About

29% were single while 1.7% were divorced and 1.7% were widowed. The high number of

married people in the business was to reduce labour cost as most married persons have

children that constitute the labour force in broiler production.

4.1.4: Educational level of Respondents

The result shows that about 97% of small scale broiler farmers had formal education

at primary, secondary and tertiary level at 6%, 35% and 56% respectively. On the other hand,

three percent had no formal education. The average years of schooling of the respondents as

estimated by this study was about 14years. This implies that there were more educated people

in small scale broiler production. However, this does not suggest that in broiler production

education was a barrier but rather an added advantage for efficient management. With this

level of education, there is tendency of the farmers being able to increase the level of

technology adopted and skill acquisition. This study agrees with the findings of (Ologbon,

Olugbenga and Ambali, & Omotuyole 2012) that found out that greater percentage of small

scale poultry farmers in Ogun State had formal Education. The findings disagrees with the

findings of Gbigbi (2012) that found out that greater percentage of Artisanal fishing

households in Niger Delta had no formal education.

4.1.5: Household size of the Respondents

Family size is recognized as a major source of labour supply in small holder

agricultural production in most African country like Nigeria. This comprises the labour of all

males, females and children in a household, who participate agricultural production. Table

4.1 shows the distribution of respondents according to their household size. Majority of the

respondents (58%) fell within the household size of 4-6 persons, (2%) fell within the

household size of 10 and above persons. The average family size of the respondents was

about 6 persons per household. This result agrees with the findings of Ugbome (2006) who

found out that majority of the respondents (small scale broiler farmers in Delta State) had an

average family size of 6 people and also agrees with the finding of Ezeh, Anyiro and

Chukwu, (2012) that Poultry Broiler farmers in Umuahia Capital Territory of Abia State,

Nigeria had the average household size of 6.

4.1.6: Farming Experience of the Respondents

The distribution of respondents by farming experience as shown in table 4.1 indicates

that there was influx of new entrants into broiler production in recent times. This could be

due to the ban on importation of frozen broiler product by the Federal Government. This is

represented by about 86% who had from 1-10years of experience. The result shows that

majority 52% had farming experience of 6-10years, followed by about 34% who had farming

experience of 1-5years, 8% had farming experience of 11-15years and 6% had farming

experience of 15years and above. Table 4.1 showed that the average farming experience of

the respondents was about 8years which means that they were still new in the business and

had no experience in broiler production. However, the more experience the broiler farmers

have, the more technically efficient they will be in production.

Table 4.1: Frequency Distribution of Respondents according to their Socio-Economic

Characteristics

Socio-economic Categories Frequency Percentage

Mean

Characteristics

Age (years) 11-20 9 7.50

21-30 48 40.00

31-40 35 29.16

36years

41-50 13 10.83

51-60 8 6.70

Above 60 7 5.83

120 100

Gender Male 69 57.50

Female 51 42.50

120 100

Marital Status Married 81 67.50

Single 35 29.16

Divorced 2 1.67

Widow(er) 2 1.67

120 100

Educational level No formal (0) 4 3.33

Primary (6) 7 5.83

Secondary (12) 42 35.0

14years

Tertiary (above 12) 67 55.83

120 100

Household size 1-3persons 14 11.70

4-6persons 69 57.50

6persons

7-9persons 35 29.20

Above 10 2 1.70

120 100

Farming Experience 1-5years 41 34.20

6-10years 62 51.70 8years

11.-15years 10 8.33

Above 15 7 5.83

120 100

Source: Field survey data, 2013

4.2 Management Practices and Acquisition of Resources of the Respondents.

The management practices and acquisition of resources by the respondents were

presented in Table 4.2. The table shows that majority (68%) adopted deep litter system, about

23% adopted free range while the least (9%) adopted battery cage system.

Majority (33%) raised 41-60 broilers, followed by about 28% who raised between 21-

40broilers. About 19% raised 1-20 broilers, 12% raised between 61-80 broilers while the

least (8%) raised between 81-100broilers. Majority about (98%) raised broilers for 10 and 12

weeks, two percent raised broilers for more than 12 weeks.

Majority of the farmers 66% acquired land by place of residence; about 26% acquired

land by gift/inheritance. This might limit large scale production that require large area of land

because place of residence and inherited lands might be too small and fragmented into

smaller portions in different areas. About six percent acquired land by purchase/rent while the

least (3%) acquired land by lease. On feed source, table 4.2 shows that majority (85%)

bought feed from the feed miller while the remaining 15% mill feed themselves.

On sources of capital, Table 4.2 shows that most of the respondents (77%) used

personal savings, about 17% obtained Capital as gifts from relatives while 4% and 3%

sourced their capital from Cooperative Societies and Banks respectively. On source of labour,

Table 4.2 shows that majority (78%) used only family labour, 16% used both family and

hired labour while about 6% used hired labour only.

Table 4.2: Management Practices and Acquisition of Resources of the Respondents.

Category Frequency Percentage

Management System Adopted

Deep Litter 82 68.33

Battery cage 11 9.17

Free Range 27 22.50

120 100

Number of birds

1-20 23 19.20

21-40 33 27.50

41-60 40 33.33

61-80 14 11.70

81-100 10 8.33

120 100

Duration

8 weeks 0 0.00

10 weeks 50 41.70

12 weeks 67 55.83

Above 12 weeks 3 2.50

120 100

Land Acquisition

Gift/ Inheritance 31 25.83

Purchased/ Rent 7 5.83

Lease 3 2.50

Place of Residence 79 65.83

120 100

Sources of feed

Milled by self 18 15.00

Bought from feed miller 102 85.00

120 100

Sources of Capital

Personal savings 92 76.70

Cooperative societies 5 4.20

Money lender/bank loan 3 2.50

Gift from relatives 20 16.70

120 100

Sources of Labour

Family 94 78.33

Hired 7 5.83

Both family and hired 19 15.83

120 100

Source: Field survey data, 2013

4.3 Efficiency Results

4.3.1 Estimated Production Function

The maximum likelihood (ML) estimates of the Cobb-Douglas stochastic frontier

production function for small scale broiler farmers are presented in table 4.3. The

coefficients of herd size and value of feed have the a priori expected positive signs and are

significant at 1% showing direct relationship with output. This implies that a 1% increase in

herd size and value of feed will increase the quality of small scale broiler farmers by 0.3152

and 0.1850 respectively.

The estimated variance (δ²s=0.0023) is statistically significant at 1% level of probability. This

value indicates that technical inefficiency is highly significant in the small scale broiler

farmers’ production activities.

The γ parameter shows the relative magnitude of the variance in output associated

with technical efficiency. The coefficients of the variables derived from the Maximum

Likelihood Estimation (MLE) are very important for discussing results of the analysis of the

data. This coefficient represents percentage change in the dependent variables as a result of

percentage change in the independent (or explanatory) variables. Gamma (γ) is estimated at

0.5238 and is statistically significant at 1% indicating that 52% of the total variation in broiler

output is due to technical inefficiency.

Table 4.3: Estimated Dual Purpose Cobb-Douglas Stochastic Frontier Production

Function for Small Scale Broiler Households in Delta State, Nigeria

Variables parameters coefficients standard error t-

value Production factors

Constant term β0 3.6699 0.2618

14.0166***

Stock of birds β1 0.3152 0.0780

4.0406***

Value of feed β2 0.1850 0.0715

2.5888***

Drugs and vaccines β3 0.0295 0.0277 1.0670

Labour β4 0.0015 0.0027 0.5388

Inefficiency factors

Constant term Z0 0.7874 0.0561

14.0338***

Cooperative society Z1 0.0043 0.0096 0.4484

Age Z2 -0.0112 0.0011 -

10.6000***

Educational level Z3 -0.0436 0.0087 -

5.0174***

Family size Z4 -0.0002 0.0021 -0.1072

Farming experience Z5 -0.0006 0.0012 -0.4777

Credit access Z6 0.0301 0.0134

2.2529**

Extension visits Z7 0.0023 0.0033 1.1198

Diagnostic statistics

Total variance (sigma δ²s 0.0023 0.0003

8.0951***

Squared)

Variance ratio (Gamma) γ 0.5238 0.0825

6.3480***

LR. Test 161.4280

Log-likelihood Function 337.0780

***, ** and * are significant levels at 1%, 5% and 10% respectively

Source: Field survey data, 2013

4.4 Determinants of Technical Efficiency in Small Scale Broiler Production

This section presents the results of the analysis of the factors that determine or

influence technical efficiency in small scale broiler production in Delta State. These

explanatory variables (or factors) are of interest in this study because they have important

policy implications.

Table 4.3 Estimated Cobb-Douglas Stochastic Frontier Production Function for Small Scale

Broiler Households in Delta State, Nigeria above presents the results of the inefficiency

model for small scale broiler farmers. Age, Educational level and credit access have

significant effect on the level of technical inefficiency with a coefficient of -0.0112 and -

0.0436 respectively. Credit access has positive relationship with technical inefficiency with a

coefficient of 0.0301. The positive coefficient implies that any increase in the value of the

variable would lead to an increase in the technical inefficiency level of the farmer. Age and

Educational level have negative relationship with technical inefficiency. The negative

coefficients imply that any increase in the value of the variable would lead to a decrease in

the technical inefficiency level of the farmer.

Age

The coefficient of age has a negative sign and is statistically significant at 1% level of

probability as shown in table 4.3. This implies that as the age of broiler farmers increases,

their level of technical inefficiency reduces (or technical efficiency increases). This finding

disagrees with the findings of Mbanasor and Kalu (2008) who reported that the older the

household head becomes, the more he or she is unable to combine the available technology.

However, the findings tends to agree with the findings of Chavanapoonphol et al (2005) and

Ogundari (2006) in which they found out that technical efficiency and profit efficiency,

increase with age respectively.

Educational Level

The coefficient of educational level has a negative sign and is statistically significant

at 1% as shown in table 4.3. This suggests that as the level of education of the farmers

increase, their level of technical inefficiency reduces. This finding agrees with that of Ezeh,

Anyiro and Chukwu (2012) whose result showed the coefficient of educational level to be

negative and statistically significant at 1% level of probability. The findings disagree with

Onyenweaku and Nwaru (2005), Onyenweaku, Igwe and Mbanasor (2004) whose results

showed the coefficient of educational level to be positive, implying that the more educated

the farmers become, their level of technical inefficiency increases.

Credit Access

The estimated coefficient for small scale broiler farmers, credit accessibility was

positive and significant at 5% level of probability. The finding shows that the technical

inefficiencies tend to increase for farmers that had access to credit. This maybe as a result of

the fact that credit received by the farmers were not properly managed or diverted to other

uses. The result disagrees with the findings of Solios, Bravo-Ureta and Quiroga (2006) which

indicated that inefficiency decreases with credit accessibility. However, it agrees with the

findings of Obwona (2000; 2006). It implies that a well structured and supervised credit

programme or facilities have to be put in place with easy access to monitor and ensure that

credit received by the farmers are properly managed and not diverted to other unproductive

ventures.

4.4 TECHNICAL EFFICIENCY ESTIMATES FOR SMALL SCALE BROILER

FARMERS IN DELTA STATE, NIGERIA.

The technical efficiency shows the ability of farmers to derive maximum output from

the inputs used in broiler production. Given the results of the Cobb-Douglas stochastic

frontier model, the technical estimates are presented and discussed in table 4.4 below.

The technical efficiency of the sampled households is less than 1 (or 100%),

indicating that all the households are producing below the maximum efficiency frontier. A

range of technical efficiency is observed across the sampled households where the spread is

large. The best broiler household had a technical efficiency of 99.45%, while the worst

household had a technical efficiency of 56%. The mean technical efficiency was 78%. This

implies that on the average, the respondents were able to obtain just over 78% of optimal

output from a given set of inputs. This shows that small scale broiler farmers households

technical efficiency can be improved by 22% in order to raise the level of broiler output in

the study area. The distribution of technical efficiency of the small scale broiler households

show that none of the household heads had a technical efficiency of less than 50, while 51

household heads representing 42.50% had a technical efficiency of above 80%.

Table 4.4: Frequency Distribution of Technical Efficiency among Small Scale Broiler

Households in Delta State, Nigeria

Technical Efficiency Range % Frequency Relative Frequency

≤50 0 0.00

51-60 4 3.33

61-70 36 30.00

71-80 29 24.17

81-90 27 22.50

91-100 24 20.00

Total 120 100

Mean technical efficiency 78%

Minimum technical efficiency 56%

Maximum technical efficiency 99.45%

Source: Field survey data, 2013

Table 4.5: Constraints on Broiler Production as Perceived by the Farmers.

Some constraints were identified as hindrances to increased broiler production

amongst the farmers. Table 4.5 below presents the identified constraints on small scale

broiler production as perceived by the farmers. The major constraint encountered by small

scale broiler farmers is feed cost (50.00%). This finding agrees with the findings of Ugbome

(2006) whose findings showed that feed cost was the major constraint on poultry production.

Lack of capital was estimated to be 28%. Other problems included pest/disease outbreak

10%, pilfering 4%, high mortality rate7% and shortage of water 1%. One could then say that

the constraints to broiler production were mainly due to input factors than management

factors.

Table 4.5: Frequency Distribution of Constraints associated with Small Scale Broiler

Production in Delta State, Nigeria

Constraints frequency percentage%

Pilfering 5 4.20

Pest/disease outbreak 13 10.80

Feed cost 60 50.00

Lack of capital/fund 33 27.50

High mortality rate 8 6.70

Shortage of water 1 0.83

Total 120 100

Source: Field survey data, 2013

CHAPTER FIVE

5.0 SUMMARY, CONCLUSION AND RECOMMENDATIONS

5.1 Summary of Major Findings

This study was carried out with the view to examine the production efficiency of

small scale broiler farmers in Delta State, Nigeria. A sample size of 120 broiler farming

households were randomly sampled using a set of detailed and well structured questionnaire.

Objectives (i), (ii) and (v) were realized using descriptive statistics such as mean, frequency

distribution and percentages. Objective (iii) was achieved using a stochastic frontier

production model, objective (iv) was achieved using inefficiency effects model

simultaneously to realize with stochastic frontier model through maximum likelihood

estimation (MLE) program available in frontier version 4.1. The study made the following

major findings:

Considering the socioeconomic characteristics of small scale broiler farming households in

the study area, greater percentage of about 40%of them fell between age range of 21-30years

while their computed average age was about 36years in the study area. Male dominated

broiler production in the study area, about 58% were male; Majority of the respondents about

68% were married.

Greater percentage of about 56% of the broiler farmers had tertiary education with

average of about 14years of formal education in the study area. Greater percentage of about

58% of the broiler farmer household fell within the household size of 4-6 with computed

average of about 6 people. Greater percentage of about 52% was found to have farming

experience of 6-10years and the computed average farming experience was about 8years.

Investigation into the management practices showed that the household heads were involved

in different management practices, ranging from the use of deep litter, battery cage and free

range systems. Greater percentage of about 68% of the farm household heads used the deep

litter system; about 33% raised between 41-60 broilers, about 56% raised broilers for 12

weeks. Majority of about 66% of the respondents acquired land by place of residence, 85% of

the respondents bought feed from the feed miller, 77% used personal savings as source of

capital while greater percentage of about 78% used family labour. The maximum likelihood

(ML) estimates of the Cobb-Douglas stochastic frontier production parameters for small scale

broiler production showed that the coefficients of stock of birds and feed have positive signs

and are statistically significant at 1% level of probability. The factors affecting technical

efficiency is small scale broiler production by households showed that age and educational

level decreased the household’s technical inefficiency and invariably increased their technical

efficiencies, while credit access increased their technical inefficiencies at 5% level of

probability. On the other hand, cooperative membership, household size, farm experience and

extension visits showed no significant relationship with output. The study showed that the

major constraints against small scale broiler production in the study area are feed cost, lack of

capital/fund and disease outbreak.

5.2 Conclusion

The study investigated the production efficiency of small scale broiler farmers in

Delta State, Nigeria. The results of this study showed that small scale broiler farmer’s

households in Delta State were technically inefficient presumably as a result high cost and

miss-management of inputs like feed leading to low output and income. The results revealed

that age, level of education and credit accessibility influenced the technical efficiency of

small scale broiler production. Individual levels of technical efficiency ranged between 56%

and 99% with a mean of 78%, suggesting that opportunities still exists for increasing

productivity and income of broiler farmers in the study area. This can be achieved by

increasing the efficiency of resources used at the farm level up to 22%.

5.3 Recommendations

The results of this study have some vital policy implications for enhancing the technical

efficiency of broiler farmers at the present level of technology in the area. The following

policy implications are presented;

i. Government should develop and implement policies aimed at subsidizing cost of

production inputs like feed, drugs/medicine, day old chicks and target such

policies at experienced broiler farmers to help increase production and efficiency.

ii. The State Ministry of Agriculture should implement already existing laws that

will prevent hatchery operators from pushing or selling day-old chicks with

hatcheries related problems to the rearers. Also, more hatcheries should be

provided by the ministry to make day-old chicks readily available and affordable

at reduced price.

iii. Farmers should make effort to keep their surroundings clean and ensure that litter

materials are disposed off as at when due. This will help to reduce the incidence of

disease outbreak and improve conditions for poultry rearing which in turn will

lead to increase in production output.

5.4 Contribution to Knowledge

Despite the proliferation of research in this area, few studies have joint analyzed technical

efficiency and factors that influence technical efficiency on small scale broiler farming.

Efficiency study had been undertaken in the past but this study has integrated the technical

efficiency and the determinants of technical efficiency. It was shown that small scale broiler

farmers are technically inefficient. This shows that they are presently underutilizing their

productive resources. Broiler production efficiency level can be improved as farmers

combined more resources at the present technology level in the study area.

5.5 Areas of further research:

There is need to embark on further research in the following areas;

i. Technical efficiency of each poultry animal (layers, turkey, pigeon, ducks etc) in

the riverine area of Delta State

ii. Production efficiency of large scale poultry broiler farmers in Delta State

iii. Effect of flood on the efficiency level of small scale broiler farmers in the riverine

areas of Delta State.

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Dept of Agricultural

Economics,

University of Nigeria.

Nsukka

Date:

Dear respondent,

A REQUEST TO RESPOND TO A QUESTIONNAIRE

I am a post-graduate student of the above named Department currently

undertaking a research work entitled “Production Efficiency of small scale

broiler farmers in Delta State, Nigeria”.

This questionnaire is a part of the research procedure that will enable me

to gather adequate information to give my work authenticity. I therefore, urge

you to kindly respond to the following question as objectively as possible.

Every information supplied will be treated strictly confidential. Thank you.

Yours faithfully,

Anwasia Anthonia

APPENDIX

QUESTIONNAIRE SCHEDULE

A. LOCATION

1. Zone :

2. Local Government Area :

3. Village :

B. SOCIO- ECONOMIC CHARACTERISTICS OF THE FARMERS

4. Name:

5. Age:

6. Sex: Male ( ) Female ( )

7. Marital status: married ( ) single ( ) divorced ( ) widow(er) ( )

8. Level of education:

a) No formal education ( )

b) Primary education ( )

c) Secondary education ( )

d) Tertiary education (OND, NCE, HND,/B.Sc, M.Sc, P.hd) ( )

9. Family size: (a) 1-3 ( ) (b) 4-6 ( ) (c) 7-9 ( ) (d) 10 and above ( )

10 Farming experience: (a) 1-5years ( ) (b) 6-10 years ( ) (c) 11-15 years ( )

(d) Above 15 years ( )

B. MANAGEMENT PRACTICES AND ACQUISITION OF

RESOURCES

11. What system of management did you adopt?

(a) Deep litter system ( )

(b) Battery cage ( )

(c) Free range system ( )

12. Why did you adopt this system?

(a) It is cheaper ( )

(b) Requires less labour ( )

(c) Others ( specify)

13. How many broilers did you raise in 2012?

(a) 1 – 20 ( ) (b) 21 – 40 ( ) (c) 41 – 60 ( ) (d) 61 – 80 ( )

(e) 81 – 100 ( )

14. How many birds were lost?

(a) None ( )

(b) 1 - 20 ( )

(c) 21 – 30 ( )

(d) 31 – 40 ( )

(e) 40 and above ( )

15. What were the major causes of death?

(a) Pest/Disease outbreak ( )

(b) Poor nutrition ( )

(c) Environmental condition ( )

(d) Poor hygiene ( )

(e) Others (specify)

16. How long did you raise the broilers?

(a) 4 weeks ( ) (b) 6 weeks ( ) (C) 8 weeks ( ) (d) 10 weeks ( )

(e) Above 10 weeks

17. How did you acquire the land on which you operate?

(a) Inheritance ( )

(b) Purchased ( )

(c) Lease ( )

(d) Gift ( )

(e) Place of residence ( )

(f) Rent ( )

If rented, how much do you pay for the use per annum ₦

18. What other livestock do you rear alongside broiler?

(a) Pigeon ( )

(b) Goat ( )

(c) Turkey ( )

(d) Duck ( )

(e) Others (specify)

19. How do you get your feeds?

(a) Milled by self ( )

(b) Bought from feed miller ( )

20. How many times a day do you feed the broilers?

(a) Once ( ) (b) twice ( ) (c) 3 times ( ) (d) 4 times ( )

(e) More than 4 times ( )

21. Do you buy drugs/vaccines?

(a) Yes ( ) (b) No ( )

If yes, how much was spent on drugs and vaccines? ₦

22. How many birds were sold?

23. At what cost was each bird sold?

24. How many bags of feed were used on the whole?

25. What was the cost of feed per bag of feed? ₦

D. FARM RESOURCES

26. What were the sources of your financial capital?

(a) Personal savings ( )

(b) Cooperative society ( )

(c) Money lender ( )

(d) Bank loan ( )

(e) Gift from relatives ( )

27. If financial capital is borrowed, how much was borrowed?

₦ and what was the interest charged per annum? ₦

28. Did you receive any credit during the broiler production period?

Yes ( ) No ( )

29. If yes, what were the amount and the sources?

Sources amount ₦

……………….. ……………………

…………….... …………………….

TOTAL

30. What did you use the loan for?

.................................................................................................

E. AGRICULTURAL EXTENSION SERVICES

31. Do you have agricultural extension workers in your area?

Yes ( ) No ( )

32. Do you get advice from them?

Yes ( ) No ( )

If yes, how many visits do they usually make in a year? Visits.

F. LABOUR ASSESSMENT

33. What are your sources of labour?

(a) Family ( )

(b) hired ( )

(c) both ( )

If hired, at what cost? ₦

34. What was the number of people that worked in the farm?

G. CONSTRAINTS ON BROILER PRODUCTION AS PERCIEVED BY

THE FARMERS

35. What are the problems that militated against effective broiler production in 2012?

a. Pilfering ( )

b. Pest/Disease outbreak ( )

c. Feed cost ( )

d. Lack of Fund ( )

e. High motility rate ( )

f. Unavailability of feed ( )

g. Shortage of water ( )

h. Lack of capital ( )

i. Others (specify)

36. As an experienced broiler farmer, what are your suggestions for improvement in the

poultry industry?

s