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Greener Journal of Agricultural Sciences Vol. 11(2), pp. 57-64, 2021 ISSN: 2276-7770 Copyright ©2021, the copyright of this article is
retained by the author(s) |
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Determinants of Climate Change
Adaptation Strategies Used by Compound Farmers in Emohua Local Government Area
of Rivers State
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Department of Agricultural Economics and
Extension, Faculty of Agriculture, University of Port Harcourt, Rivers state,
Nigeria
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ARTICLE INFO |
ABSTRACT |
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Article
No.: 022421021 Type: Research |
The study identified determinants of climate
change adaptation strategies used by compound farmers in Emohua Local
Government Area of Rivers state. One hundred and twenty crop farmers were
selected for the study using two stage sampling procedure. Data was collected
with the aid of questionnaire complemented with interview schedule and
analyzed using both descriptive statistics and inferential statistics namely,
percentages, frequency, mean and ordinary Least Square regression Analysis
(OLS). The result of the study showed that compound farmer’s major source of
climate change information is through fellow farmers (81%). The major
adaptation strategies used by the compound farmers were changing of planting
and harvesting date ( |
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Accepted: 25/02/2021 |
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*Corresponding
Author Ifeanyi-obi,
C.C E-mail:
clara.ifeanyi-obi@ uniport.edu.ng Phone:
+2348033397055 |
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Keywords: |
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INTRODUCTION
Globally,
over the years there have been vagaries of the climatic variables resulting in
climate change. Climate change is phenomenon that has become a recurring
decimal in local, national and international discourse (FAO, 2010). Agriculture
plays a very important role in the Nigerian economic development as it
contributes immensely to employment, food production, industrial inputs and
foreign exchange earnings (Agwu, Nwachukwu, & Agwu, 2010). Climate
change is rapidly emerging as a global critical development issue affecting
many sectors in the world and is considered to be one of the most serious
threats to sustainable development. An unprecedented increase in greenhouse
emissions has led to increased climate change impacts. Agricultural activities
have been shown to contribute immensely to climate change as it ranks third
after energy consumption and chlorofluorocarbon production in enhancing
greenhouse emissions. Emissions from agricultural sources are believed to
account for significant proportion of anthropogenic greenhouse gas emissions.
Also, land use changes, often made for agricultural purposes, contribute are
known to also contribute to the change in climate through increased emissions
of GHG stimulated by these changes (Ozor & Nnaji, 2011). Adaptation to
climate change is considered key in combating climate change in addition to
mitigation measures throughout the world. Adaptation, a complex,
multidimensional, and multi–scale process, has been defined as adjustments to
behavior or economic structures that reduce vulnerability of society in the
face of scarcity or threatening environmental change (Bryan & Behrman,
2013).
Compound farms are intensively cultivated fields found around or
close to home or compound houses and they are normally under permanent
cultivation. Compound farmers are those individuals who cultivate or plant crops behind
their houses or close to their houses. This is why it is sometimes called
backyard farming. This
buttress more the crucial need of enhancing compound farming as the livelihood
of huge proportion of the rural poor will be improved through this. Furthermore,
Compound
farming could play an important role in helping to reduce greenhouse gas (GHG)
emissions that contribute to climate change because it ensures green vegetation
in the compound that facilitate absorption of Green House Gases (Ifeanyi-obi,
Angba, Aja, Abuta… et al., 2019). This implies that compound farming do not
only help to enhance livelihood of the rural poor family, it also acts as
mitigation to climate change through contributing to greenhouse gas absorption.
As the changes in climate impacts compound farming, these farmers also respond
to these effects using strategies available to them. Though other
socio-economic factors play major roles in determining the adaptation
strategies used by the compound farmers. Knowledge of these factors are not yet
well documented. It is important to understand what factors determine choice of
adaptation strategies used by compound farmers. This will help to inform
advisory services and intervention programmes targeted at them hence making it
more need-driven.
It
is against this background that this paper assessed the determinants of climate
change adaptation strategies used by compound farmers in Emuoha LGA of Rivers
State. It specifically described the socio-economic
characteristics of compound farmers, ascertained compound farmer’s
sources of climate change information, determined
climate change adaptation strategies used by compound farmers in the study area
and the determinants of the adaptation strategies used.
Hypothesis
of the study
The null hypothesis that was tested in the
study is as stated below:
Ho: Compound famer’s choice of climate change
adaptation strategies is not significantly affected by their socio-economic
characteristics.
METHODOLOGY
The research was conducted in Emohua Local
Government Area of Rivers State. Emohua consist of fourteen wards and the
predominant occupation of the people is farming. It has an area of 11,077 km24, 277 mi˛and a population of 7,303,924 at the 2016 census. It
has total of 10 communities, excluding the sub- villages which include Emohua
town, Elebrada, Oduoha, Rumuji, Obella- ibaa, Rumuekpa Obakiri, Omudioga,
Elele-Alimini, and Ndele.
The population of the
study comprised of all households that are involved in compound farming in the
study area. A two-staged sampling
procedure was used to select sample for the study. The first stage was the
random selection of six (6) communities from the ten communities in the LGA. In
the second stage Snow ball sampling techniques was used to develop the list of
all compound farmers in the six selected communities. Then 20 households were
selected randomly from each of the 6 communities, giving a total of 120
households used for the study. Data collection was done with the aid of
questionnaire and described with percentages, mean and frequency counts. The
hypothesis was tested using ordinary Least Square Regression analysis.
Model Specification for the Ordinary Least
Square Regression Analysis is stated as follows:
H0: There is no significant
difference between the socio-economic characteristic of compound farmer and the
adaption strategies they use.
Y = f(x1, x2, x3,
x4, x5, x6,x7 , e)
Where Y= Pooled index of adaptation
strategies used by compound farmer measured with a 4point-likert type scale of
Strongly Agree (4), Agree (3), Disagree (2), and Strongly Disagree (1).
X1 =
Gender (Dummy: Male = 1, Female = 2
X2=
Marital status
X3= Household
size
X4 Age
X5 = Educational level
X6 = Type of animal reared
X7 = Aim of compound farming
E = Error term
It is expected a priori that the coefficients of X1X2, X3, X4, X5, X6, X7 >0
The relationship between the dependent and each of the independent
variables was examined using the four functional forms: linear, semi-log,
exponential and double- log. A lead equation was chosen based on the
appropriateness of signs, magnitude of coefficient of multiple determination (R2),
statistical significance of the variables and a priori theoretical
expectations.
Linear: Y= B0 + B1X1
+ B2X2 + B3X3 + B4X4 + B5X5 + B6X6 + B7X7
+ e
Semi-Log: Y= B0 + B1 logX1 + B2 logX2 + B3 logX3 + B4 IogX4 + B5 logX5 + B6logX6 + B7X7 + e
Exponential: logY=B0 +B1X1 +B2X2 +B3X3 +B4X4 +B5X5 +B6X6 + B7X7 + e
Double Log: logY=B0 +B1 logX1 +B2 logX2 +B3 logX3 +B4 logX4 +B5 logX5 +B6 logX6 + B7X7 + e
RESULTS
AND DISCUSSION
Socio-economic
characteristics of compound farmers
Table1 showed the
socio-economic characteristics of compound farmers. Result showed that women
(57%) participate more in compound farming than the male (43%). Umunakwu, Nnadi
and Chikaire (2014) in their study of information needs for climate change
adaptation among rural farmers in Owerri west LGA similarly found that females
were involved in farming more than their male counterparts. Increased migration
of the male folk to cities in search of greener pastures may be part of the
reason for increased incidence of female headed households and farmers.
Majority (60.7%) were married with household size mainly (78%) between 2 to 5
persons. Enete and Okon (2012) similarly
found that 60% of the farmers in the AkwaIbom State had household size ranging
from 5-8 persons. On the other hand, Nnadi et, al (2012), noted that marriage
encourages complimentary efforts among farming households and this could
promote adaptation among farming household. Similarly, Umunakwu (2011) found
that majority of farmers in Imo State are married. The average age of the compound farmers in
the study area is 48years. Ozor, umunakwe, Ani and Nnadi (2015) in their study
of perceived impact of climate change among rural farmer in Imo State, found
similar result and noted that farmers within this age are still in their active
and productive age and can be efficient in agricultural production. As regards
educational qualification, significant percentage (44%) of the respondents do
not have any formal education, only 29% have First school leaving certificate
and 21% had the senior school leaving certificate. This shows that literacy
level in the area is quite low and may have negative effect on their
understanding of climate change as well as their readiness to adopt effective
climate change strategies. Result further showed that the major farming
enterprise engaged by compound farmers in the study area is crop production
(81%) with cassava (80%), corn and cucumber (38%) as the major crops produced.
None of the farmers engaged only in animal production, the low participation in
animal production in the area may be as a result of constant stealing of
animals by cult boys in the area deterring households from going into animal
production as the animals are always stolen. The major aim of production among
the compound farmers was found to be both consumption and sale (69%).
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Table1 Socio-economic characteristic of compound
farmers |
|||
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|
Frequency |
Percentage |
Mean |
|
Gender |
|
|
|
|
Male |
48 |
42.9 |
|
|
Female |
64 |
57.1 |
|
|
Marital status |
|
|
|
|
Single |
25 |
22.3 |
|
|
Married |
68 |
60.7 |
|
|
Divorced |
1 |
0.9 |
|
|
Separated |
18 |
16.1 |
|
|
Household size |
|
|
|
|
2-5 |
87 |
78 |
|
|
6-10 |
24 |
21 |
2 |
|
Above 10 persons |
1 |
1 |
|
|
Farmers age |
|
|
|
|
26-33 |
14 |
12.5 |
|
|
34-41 |
20 |
17.9 |
|
|
42-49 |
24 |
21.5 |
|
|
50-57 |
30 |
26.9 |
|
|
58-65 |
23 |
20.3 |
|
|
66-73 |
1 |
0.9 |
48 |
|
Educational level |
|
|
|
|
No formal education |
50 |
44.7 |
|
|
First school living certificate |
32 |
28.6 |
|
|
SSCE |
23 |
20.5 |
|
|
OND |
3 |
2.7 |
|
|
HND |
0 |
0 |
|
|
BSC |
4 |
3.6 |
|
|
Post graduate |
0 |
0 |
|
|
Area of specialization |
|
|
|
|
Crop production |
91 |
81.3 |
|
|
Animal production |
0 |
0 |
|
|
Both |
21 |
18.8 |
|
|
Crops produced |
|
|
|
|
Vegetable |
42 |
37.5 |
|
|
Cassava |
90 |
80.4 |
|
|
Yam |
25 |
22.3 |
|
|
Corn and Cucumber |
43 |
38.4 |
|
|
Plantain |
40 |
34.8 |
|
|
Others (pepper, okra, groundnut, melon, sugar-cane) |
21 |
18.8 |
|
|
Animals reared |
|
|
|
|
Goat |
14 |
12.5 |
|
|
Poultry |
6 |
5.4 |
|
|
Sheep |
0 |
0 |
|
|
Others (pig and dock foul) |
2 |
18 |
|
|
Major aim for compound farming |
|
|
|
|
Consumption |
17 |
15.2 |
|
|
Sale |
18 |
16.1 |
|
|
Both |
77
|
68.8 |
|
Source:
Field survey 2019
Compound farmer’s
sources of climate change information
It was shown in Table
2 that compound farmer’s sources of climate change information were mainly from
their fellow farmers (81%), radio (43%) and television (38%). Result showed
that not much information was received from the agricultural extension agents implying
low extension coverage. It was also shown that mobile phones constitute a minor
means of information source for the farmers. It could be that farmers in the
study area are yet to harness the potentials of mobile phones as a vital tool
of information sharing and dissemination. There is low presence and activities
of farmers associations in the area. This could also hamper their access to
some resources like credit resources as financial institutions prefer to relate
with farmers associations rather than individual farmers. The result agrees
with Tologbonse, Auta, Bidoli and Jaliya et
al. (2010) which reported that farmers seem to have thorough knowledge on
the effects of climate change through information from fellow farmers.
Table 2 Compound
farmer’s sources of climate change information
|
S/N |
Source |
*Frequency |
Percentage |
|
1 |
Agricultural Extension agents |
2 |
1.8 |
|
2 |
Ministry of agriculture |
3 |
2.7 |
|
3 |
Radio |
48 |
42.9 |
|
4 |
Television |
42 |
37.5 |
|
5 |
Farmer’s association |
1 |
0.9 |
|
6 |
Non-Governmental Organization |
10 |
8.9 |
|
7 |
Internet |
23 |
20.5 |
|
8 |
Prints materials such as Newspaper, handbills,
leaflets, posters and news letter |
23 |
20.5 |
|
9 |
Consultants/experts |
8 |
7.1 |
|
10 |
Fellow farmers |
91 |
81.2 |
|
11 |
Mobile phones |
9 |
8.0 |
Source:
Field survey 2019: *Multiple response
Adaptation strategies
used by compound farmers in the study area
Result of adaptation
strategies used by compound farmers in the study area showed that the major
adaptation strategies used by the compound farmers were changing of planting
date (
=3.5),
more frequent weeding (
=3.5), use
of crop rotation measures to control pest (
=3.4),
planting of different crop varieties (
=3.4) and
application of indigenous knowledge in adapting to climate change (
=3.1). The
result agrees with Ifeanyi-obi, Etuk and Uloh, (2014) in their study of Cassava
farmers’ adaptation to climate change in Oron Agricultural zone of Akwa Ibom
State found major adaptation strategies used by these farmers to include use of
different planting dates for the crop, early planting of crop and planting of
different crop varieties. Planting of tress, soil conservation, use of
different crop varieties, changing of planting date and irrigation has been
found by many researchers as major climate change adaptation strategies used by
farmers (Bradshaw et al., 2004;
Kurukulasuriya and mendelsohn, 2008; Maddison, 2006; Nhemachena and Hassan,
2007; Hassan and Nhemachena, 2008; Ole et
al., 2009).
Table 3 Climate
change adaptation strategies used by compound farmers
|
Adaptation strategies |
SD |
D |
A |
SA |
MEAN |
|
Use of improved crop varieties |
79(70.5) |
29(25.9) |
2(1.8) |
2(1.8) |
1.3* |
|
Changing of planting and harvesting date |
2(1.8) |
4(3.6) |
37(33.0) |
69(61.6) |
3.5** |
|
Making ridge across slope in the farm to prevent
erosion |
7(6.2) |
52(46.4) |
39(34.8) |
14(12.5) |
2.5** |
|
Planting of cover crop to reduce evaporation |
9(8.0) |
49(43.8) |
40(35.7) |
14(12.5) |
2.5** |
|
Increased mulching to conserve soil water |
12(9.8) |
27(24.1) |
41(36.6) |
32(28.6) |
2.8** |
|
Use of information from extension agents to minimize
the effects of climate change |
78(69.6) |
30(26.8) |
3(2.7) |
1(0.9) |
1.3* |
|
Avoid the practice of bushing burning in clearing
farmlands |
37(33.0) |
54(48.2) |
21(18.8) |
0 |
1.8* |
|
Use of irrigation facilities |
46(41.1) |
57(50.9) |
7(6.2) |
2(1.8) |
1.6* |
|
I adopt crop rotation measures to control pest |
3(2.7) |
7(6.2) |
44(39.3) |
58(51.8) |
3.4** |
|
Planting of different crop varieties |
3(2.7) |
1(0.9) |
52(46.4) |
56(50.0) |
3.4** |
|
Increased use of fungicides and pesticides |
72(64.3) |
36(32.1) |
3(2.7) |
1(0.9) |
1.4* |
|
Increased use of inorganic manure e.g. fertilizers |
64(57.1) |
32(28.6) |
15(13.4) |
1(0.9) |
1.5* |
|
Increased use of organic manure |
37(33.0) |
33(29.5) |
35(31.2) |
7(6.2) |
2.0* |
|
I undertake other non-farm activities to ensure steady
income flow |
49(43.8) |
19(17.0) |
24(21.4) |
20(17.9) |
2.1* |
|
I weed more frequently to put the weeds under check |
6(5.4) |
4(3.6) |
23(20.5) |
79(70.5) |
3.5** |
|
I combine crop and animal production to increase income |
2(1.8) |
2(1.8) |
3(2.7) |
15(13.4) |
0.6* |
|
I rear improved varieties of livestock |
17(15.2) |
4(3.6) |
1(0.6) |
0 |
0.2* |
|
I sprinkle water on my animals during extreme hot
weather |
1(0.6) |
7(6.2) |
13(11.6) |
1(0.6) |
0.5* |
|
I feed my livestock more frequently than before |
1(0.9) |
3(2.7) |
17(15.2) |
1(0.9) |
0.6* |
|
I feed my livestock with artificial feed supplements |
15(13.4) |
7(6.2) |
0 |
0 |
0.2* |
|
I apply indigenous knowledge in adapting to climate
change |
3(2.7) |
8(7.1) |
61(54.5) |
40(35.7) |
3.1** |
Source: Field survey, 2019: * means disagreement
while ** means agreement
TEST FOR
HYPOTHESIS
There is
no significant Relationship between the Socio-economic characteristics of
compound farmers and the climate change adaptation strategies they use.
Table 4 showed the result of the Ordinary
Least Square regression analysis (OLS) conducted. Based on the appropriateness
of signs, magnitude of R2 and number of significant variables, the
exponential function was chosen as the lead equation.
The result showed
that four (4) of the seven (7) independent variables correlated positively and
significantly with the adaptation strategies used by the compound farmers,
gender was significant at 10% with t-ratio of 32.723. This could imply that
gender plays a major role in the adaptation strategies the compound farmers
used. Male and female farmers thread different paths in adapting to climate
change. Female farmers maybe using different adaptation strategies from the
ones used by their male counterparts. Marital status was also found to
correlate positively and significantly with adaptation strategies used by the
compound farmers at 5% with t-ratio of 2.509. This could imply that being
married could also impact on adaptation decision. Those who are married may not
easily use new adaptation strategies they have not tried before due to the fact
that they may not be ready to take certain level of risk. They have more
household responsibilities to also cater for and may not be ready to use
adaptation strategies that have much financial implications.
Furthermore, age was
found to be significant and correlate positively with the adaptation strategies
used by compound farmers at 5% with t-ratio of 2.669. This could imply that the
older the compound farmers become, the more equip they are to choose effective
adaptation strategies. Older farmers are known to have more experience and as
such could make better adaptation decision than the younger ones.
Educational level was
significant at 10% with t- ratio of 1.866 which positively correlated with the
adaptation strategies used by compound farmers. This implies that as their
level of education increases the choice of adaption strategies used by compound
farmers will also become better. As farmer’s literacy level increases, their
capacity also increases and they identify better ways to adapt to climate
change.
The result of this
study corroborates Eminu and Onome (2018) which found that households’
heads age, gender, educational level, farming experience, access to credit,
farm/herd size, membership of cooperative, household income, and access to
weather information, access to extension services influenced farmers adaptation
strategies used in Delta State.
In same vein, Hirpha, Mpanedi and Bantider
(2020) in assessing determinants of adaptation strategies to climate change
among small holder farmers in Ethiopia found that age and sex of household head, as well as
their education, family size, access to agricultural extension services and
training on climate change significantly influence the practices of adaptation measures.
Table 4: Ordinary
Least Square Regression result
|
Variables |
Linear |
Exponential |
Semi-log |
Double
log |
|
Constant |
33.806(7.958)*** |
1.533(32.723)*** |
117.372(3.018)*** |
2.229(6.721)*** |
|
Gender |
-1.405(-1.583) |
-0.016(-1.663)* |
-12.576(-1.129) |
-0.089(-0.941) |
|
Marital status |
1.302(2.560) |
0.014(2.509)** |
1.913(0.209) |
0.015(0.191) |
|
Household size |
1.092(1.314) |
0.012(1.342) |
2.750(0.300) |
0.031(0.391) |
|
Age |
3.771(3.023)*** |
0.037(2.669)** |
-9.298(-0.784) |
-0.067(-0.661) |
|
Educational level |
0.976(1.889)* |
0.011(1.866)* |
-0.205(-0.038) |
-0.002(-0.045) |
|
Type of animal
reared |
-0.034(-0.619) |
0.000(-0.459) |
-40.233(-1.846) |
-0.317(-1.705)* |
|
Aim of compound
farming |
-0.708(-1.344) |
-0.008(-1.428) |
8.895(0.533) |
0.049(0.348) |
|
R2 |
0.60 |
0.64 |
0.50 |
0.47 |
|
F-Statistics
(F-Value) |
18.744 |
22.456 |
1.349 |
1.238 |
Figures
in parenthesis are t-ratio; **
Significant at 5%; ***Significant at
1%;
* Significant at 10%
CONCLUSION AND
RECOMMENDATIONS
Based on the findings it was concluded that
farmers’ choice of adaptation strategies used n the study area is influenced by
their age, educational level, gender and marital status. It is important to
take these factors into cognizance in planning climate change adaptation
programme for farmers. Based on the findings of the study, the following recommendations
were made:
This study suggests the need for programmes and seminars to
intimate farmers with modern adaptation strategies especially the use of simple
irrigation facilities (like water harvesting) to supplement rainfall in Nigeria
since Nigeria depend mostly on rain fed agriculture. This will help the
compound farmers to ensure food availability round the season in their homes as
most of the household interviewed have boreholes in their family compound.
Sensitization of farmers on the importance of weather forecast is also
advocated. The stakeholders in the Nigerian agricultural sector should begin to
develop appropriate sustainable agricultural production policies with adequate
attention to the significant variables affecting agricultural output in the
country. There
is need for the Agricultural Development Programme (ADP) to increase the
extension services delivered to compound farmers in the study area. This will
help to enhance farmer’s capacity to adapt to the effects of climate change. Compound farmers should be encouraged to form
associations like cooperative society as this will help them to pool their
resources together and better adapt to climate change.
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Cite this Article: Ifeanyi-obi,
CC; Obasi, EU (2021). Determinants of Climate Change Adaptation Strategies
Used by Compound Farmers in Emohua Local Government Area of Rivers State. Greener Journal of Agricultural Sciences
11(2): 57-64. |