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56 Proceedings of epiSTEME 3
Gender Differences and Mathematics Achievement of Rural
Senior Secondary Students in Cross River State, Nigeria
Sam William Bassey
1
, M. T. Joshua
2
and Alice E. Asim
2
1
Cross River University of Technology, Calabar, Nigeria,
2
University of Calabar, Calabar, Nigeria
To contribute to the realization of the Millennium Develop-
ment Goal (MDG) by the United Nations on the promotion
of gender equity, the researchers sought to empirically verify
the existence or otherwise of gender inequality in the math-
ematics achievement of rural male and female students in
Cross River State, Nigeria; and whether parental socio-eco-
nomic status and school proprietorship, taken independently,
are significant factors in the achievement of the students.
By stratified and simple random sampling, 2000 students
(50% males, 50% female) were selected and a 30-item four-
option multiple choice mathematics achievement test (MAT)
was constructed (KR20 of 0.87 and item difficulty, 0.40
<
p
< 0.82) and administered. The independent t-test analy-
sis of significance revealed gender inequality in the entire
sample as well as among the low socio economic students
and within public schools. Educational implications have
been highlighted.
Introduction
Mathematics education is to a nation what protein is to a
young human organism. As a vital tool for the understand-
ing and application of science and technology, the disci-
pline plays the vital role of a precursor and harbinger to the
much needed technological and of course national develop-
ment, which has become an imperative in the developing
nations of the world. The choice of this topic is predicated
on the current world trend and research emphasis on gen-
der issues following the millennium declaration of Septem-
ber 2000 (United Nations, 2000) which has as its goal, the
promotion of gender equity, the empowerment of women
and the elimination of gender inequality in basic and sec-
ondary education by 2005 and at all levels by 2015. In
realization of the significant role of Mathematics to nation
building, the government of the Federal Republic of Nigeria
made the subject compulsory at the basic and secondary
levels. This was aimed at ensuring the inculcation of Math-
ematics literacy and the associated equipment with logical
and abstract thinking needed for living, problem solving
and educational furtherance. For full realization of this laud-
able objective of Mathematics education, subject mastery
and demonstrated achievement should be evenly distrib-
uted across gender. Unfortunately, gender inequality in edu-
cation has remained a perennial problem of global scope
(Bordo, 2001; UNESCO, 2003; Reid, 2003).
Mathematics is a science subject and some gender-based
science researchers have reported that what both the ‘femi-
nist empiricists’ and the ‘liberal feminist critics’ seem to
agree is that females in principle will produce exactly the
same scientific knowledge as males provided that suffi-
cient rigour is undertaken in scientific inquiry (Howes, 2002;
Barton, 1998; Sinnes, 2006). They also believe that initia-
tives that build on the assumption that females and males
are equal in their approach to science, and that inequality in
science and science education is caused by political, edu-
cational and social factors external to science, would be
expected to focus on removing these external obstacles.
There is need therefore to give boys and girls exactly the
same opportunities and challenges.
In Nigeria, gender-achievement studies include Abiam and
Odok (2006) who found no significant relationship between
gender and achievement in number and numeration, alge-
braic processes and statistics. They however found the
existence of a weak significant relationship in Geometry
and Trigonometry. Though globally the issue of gender
57Gender Differences and Mathematics Achievement of ...
(Hopkins, 2004), whereas others hold the view that there is
no difference between rural and urban education (Howley,
2002).
Hypotheses
The following null hypotheses are hereby stated:
Ho
1
: There is no significant difference between the
Mathematics achievement of rural male and female
students in Cross River State, Nigeria.
Ho
2
: Parental socio-economic status and school propri
etorship taken independently, are not significant fac
tors in the mathematics achievement of the rural
male and female students.
Methodology
This study used the survey design which involves the col-
lection of data at current status for description of phenom-
ena, without deliberate effort to control the variables. The
area of the study, Cross River State, is one of the thirty six
(36) states of the Federal Republic of Nigeria, situated in
the oil-rich south-south geo-political zone. It has eighteen
local government areas and lies between latitude 5
o
32
'
and
4
o
27
'
North of the Equator and longitude 7
o
50
'
and 9
o
28
'
East of the Greenwich meridian. The state has Calabar as
its capital, and is a leading tourist haven in Nigeria, with
attractions like the Tinapa, Calabar Export Processing Zone
(EPZ), the International Obudu Cattle Ranch, the Old Resi-
dency museum and Agbokim and Kwa waterfalls.
From the population of 19,200 rural secondary school two
(SS II) students in the state, 2000 students, that is 10.41
percent (50% male and 50% female) were selected by the
stratified random sampling technique. By the simple ran-
dom process, 30 schools (ten from each of the three sena-
torial districts) were selected such that by the same proce-
dure 800 were obtained from the Southern senatorial dis-
trict, 600 from the central district and 600 from the north.
Intact classes were used, subject to the sample size de-
scribed above. Sample students have mean age 16.80 years.
The sample distribution is shown in Table 1.
inequality in Science, Technology and Mathematics Educa-
tion (STME) has produced inconclusive results, one meta-
analysis covering the period 1974 – 1987 on Mathematics
and gender led to two conclusions: the average gender gap
is very small (statistically insignificant), and the fact that
the differences tend to decline with time (Friedman, 1989).
Another meta-analysis of 100 studies in gender and Math-
ematics performance corroborated the above findings
(Hyde, Fennema & Lamon, 1990). Some scholars blame
the colonizers of Africa for applying direct transfer of West-
ern Science curricula, examinations and teaching methods,
which fail to address the continental challenges of Africa.
Yoloye (1998) submitted that the result of this direct trans-
fer of western curricula, is a science and mathematics edu-
cation in most African countries that is exemplified by
decontextualized knowledge being transmitted by poorly
trained teachers in under-resourced and sometimes over-
crowded classrooms. As a consequence, the situation in
Nigeria is that, academic performance in Mathematics edu-
cation is still deplorably low, both in certificate and non-
certificate examinations. Many researchers identify inher-
ent unfairness in school-based assessment (Grifith, 2005;
Njabili, et al. 2005; Asim, 2007) which may result from
teachers’ incompetency in assessment (Asim, et al. 2007),
as well as psycho-cultural factors among others as being
responsible for this anomaly (Enukoha, 1995; Obodo, 1997;
West African Examination Council, 2002). This poor Math-
ematics performance of students is further worsened by
gender imbalance leading to the problem which now con-
stitutes a major research focus across the globe (UNESCO,
2003). In a study by Opolot-Okurut (2005) it was found
that for all the attitudinal variables (anxiety, confidence and
motivation), males had higher mean scores than females.
That is, differences in student attitude toward mathematics
based on gender were confirmed. Attitudes are known to
have positive relationship with student achievement. This
may be an indication that males perform better than fe-
males mathematically as a result of their higher attitude
scores.
It is believed that bridging gender gap is one major way of
achieving egalitarianism and enhancing human development.
School location is a variable in achievement and rural stu-
dents, who constitute the majority group in Nigeria, tend to
manifest more simple social relationships than their urban
counterparts, probably due to greater interpersonal ties in
rural settings, Hence one is led to wonder whether gender
disparities exist in the Mathematics achievement of rural
secondary school students in Cross River State. It is also
the objective of this study to verify whether parental socio
economic status and school proprietorship are significant
factors in the rural students’ Mathematics achievement.
Popular cultures view rural education as a deficit model
Table. 1. Sample distribution by district and sex
58 Proceedings of epiSTEME 3
Instrumentation
A forty-five minute, thirty (30) item multiple choice math-
ematics achievement test (MAT) of four options, A to D,
was constructed by the researchers based on the prescribed
senior secondary two (SS II) curriculum to cover the basic
areas of number and numeration, Algebraic processes, Ge-
ometry and Mensuration, Trigonometry and Statistics/prob-
ability. Students were expected to encircle the option bear-
ing the answer.
The items were set based on the table of specifications in
Table 2.
Table. 2. Table of specification for MAT
Hypothesis 2
It is seen from Table 4 that, the achievement of rural male
and female students differ only for those in the low socio-
economic bracket and for public schools. At other levels
of the variables, there is no statistically significant differ-
ence.
The MAT has reliability coefficient (KR20) of 0.87 and was
certified to be content valid by three independent experts
(two of Mathematics education and one of educational mea-
surement and evaluation). The item difficulties, p
i
are such
that 0.40
< p
i
< 0.82. This instrument was administered by
the researchers with the aid of Graduate Students to the
sample of 2000 students across the state at the beginning
of the third term of 2007/2008 session (in early April).
Results
The results of the study are summarized as shown below:
Hypothesis 1
From Table 3, it is seen that there is a significant differ-
ence between the Mathematics achievement of the rural
male and female students. This is because the calculated t-
value of 5.43 is greater than the critical t-value of 1.645 at
.05 level of significance and 1998 degrees of freedom. The
null hypothesis, Ho
1
is therefore rejected and the alternative
upheld.
Discussion of Results
Interest in gender-achievement relationship among rural stu-
dents stems from the fact that these students are in the
majority in Nigeria as a heavily populated developing nation
in Africa. The first finding revealed the existence of signifi-
cant gender achievement gap in favour of the rural males
(t
cal
5.43, t
crit
1.645 at .05 level of significance).
This corroborates popular research findings in gender lit-
erature (Ezeameyi 2002; Asimeng – Boahene 2006). Nur-
ture in Nigeria tends to favour male dominance over the
feminine gender. Environmental provision for male students
makes them fit and able to cope with tasks requiring high
intellectual challenge, computation and rigor. This phenom-
enon is further compounded in Africa where sex-stereo-
typing is so pervasive that from birth, society fixes gender
roles and conditions males to play and act within the con-
*p < .05
Table. 4. Independent t-test analysis of significance
between the Mathematics’ achievement of rural male and
female students of Cross River State, Nigeria, by SES
and School Proprietorship
*p < .05
Table. 3. Independent t-test analysis of significance
between the Mathematics achievement of rural male and
female students in Cross River State, Nigeria
59Gender Differences and Mathematics Achievement of ...
fines of intellectually and physically more challenging tasks
like construction, moulding, football, palm-wine tapping,
climbing, agriculture, fishing and the like. Women on the
other hand, are ‘sentenced’ to the kitchen and related do-
mestic chores, including child-rearing. By extension, fe-
male students in the school tend to opt for subjects like,
Home Economics and at most Biology. Chemistry, Phys-
ics, Mathematics and Further Mathematics are male-domi-
nated zones (Graham, 2001). In school, one hears female
students saying that further Mathematics is for the boys
and this low motivation may further widen the gender gap
in mathematics achievement (Mutemeri & Mygweni, 2005).
In fact, a typical informal survey in the Nigerian classroom
will readily show a greater proportion of female students
opting for non-Mathematical subjects if given the opportu-
nity. This may explain why Mathematics is made compul-
sory in both primary and secondary schools. Yet, till date
many students still offer the subject not by conviction of its
significance but on the basis of the compulsion.
The second hypothesis revealed that parental socio-eco-
nomic status (SES) and school proprietorship as correlates
of Student’s Mathematics achievement are only partially
gender sensitive. That is, whereas there is no significant
achievement difference between male and female Mathemat-
ics students from the high socio-economic parents, signifi-
cance is established for the achievements of male and fe-
male students from the low socio-economic parents. Also,
whereas, male and female students exhibit homogenous
Mathematics ability in the private schools, there is a signifi-
cant difference in the ability of the male and female stu-
dents from the public schools. All cases of significance
favour the male students.
These phenomena could be justified by the fact that stu-
dents of high socio-economic parents enjoy such motiva-
tional intervention as extra home coaching, enriched home
environment with tutorial disks and programmes available
in video, good library and better state of mental health. Their
less fortunate counterparts are highly stressed and exploited
at home through engagements in domestic tasks leaving
little time for studies. Private schools on the other hand are
characterized largely by effective teaching, good instruc-
tional supervision and the other advantages of small-scale
operation and more manageable teacher-pupil ratio. The
consequence is that learner inadequacies including gender
defect is over shadowed by strengths from other sources,
thus bridging gender gap. This cannot be said of public
schools. It is very likely therefore that the environmental
disadvantage, coupled with persistent sex-stereotyping typi-
cal of African cultures tend to keep the girls below the boys
in mathematics achievement.
Conclusion
It is concluded that there exists significant gender differ-
ences in rural students’ Mathematics achievement in Cross
River State, Nigeria.
Educational Implications
A lot needs to be done to bridge the observed gender gap in
the Mathematics achievement of rural students in Cross
River State, Nigeria. More co-educational institutions for
instance, should be established to foster greater healthy ri-
valry in Mathematics instruction. Male and female stu-
dents need to compete, collaborate and gain from one an-
other in Mathematics teaching and learning.
Guidance machinery in the school should be energized to
encourage more women participation in effective mathemat-
ics learning. The female students should be informed that
mathematics could be studied and passed just like other
subjects, and that the subject is an essential tool, a prereq-
uisite for further education in a host of vocations. Failure in
Mathematics is therefore a serious set-back in capacity
building and human development.
The current poverty alleviation programme in Nigeria should
be sustained and made practically more effective to bridge
the gap between the rich and the poor. This will improve
child education and foster national development.
Greater collaboration in school funding should be pursued
by the government at all levels so that the public schools
which are so poorly funded could improve their capacity
for productivity. The government should apply itself to the
United nations prescribed minimum budgetary allocation for
education. The situation whereby governors release less
funds than they budgeted for will keep the public school
permanently impoverished, and paupers are educational
under-achievers.
Mathematics teaching and evaluation strategies should be
gender bias-free. This way, males and females will tend to
see themselves as equals, capable of competing and col-
laborating in classroom activities.
References
Abiam, P. O. & Odok, J. K. (2006). Factors in Students’
achievement in different branches of secondary school
Mathematics. Journal of Education and Technology.
1(1), 161 – 168.
Asim, A. E. (2007). Examination ethics and school based
assessments in science, technology and mathematics: A
60 Proceedings of epiSTEME 3
critical concern for universal basic education. Proceed-
ings of the 9th National Conference of National Asso-
ciation of Evaluators and Researchers. Nigeria, Ago-
Iuoye.
Asim, A. E., Kalu, I. M., Idaka, I. E., & Bassey, S. W.
(2007). Competency in STM assessment: The case of
primary school teachers in Cross River State, Nigeria.
Proceedings of International Conference to Review Re-
search in Science, Technology and Mathematics Educa-
tion (epiSTEME-2), Feb. 12-15, Mumbai, India.
Asimeng – Boahene, L. (2006). Gender inequality in sci-
ence and mathematics education in Africa: The causes,
consequences and solution. Unpublished Seminar paper.
Barton, A. C. (1998). Feminist Science Education. New
York: Teachers College Press.
Bordo, S. (2001). Selection from the flight to objectivity.
In Lederman, M., & Barrtsh, I. (Eds.), The Gender and
science reader. London: Routledge.
Enukoha, O. I. (1995). The Psycho-cultural basis for teach-
ing mathematics. Calabar: Executive publishers.
Ezeameyi, M. N. (2002). The effects of games on Math-
ematics achievement, interest and retention of junior sec-
ondary school students. Unpublished PhD Thesis. Uni-
versity of Nigeria, Nsukka.
Friedman, L. (1989). Mathematics and the gender gap: A
meta analysis of recent studies on sex differences in Math-
ematical tasks. Review of educational Research, (59),
185 – 213.
Graham, M. (2001). Increasing participation of female stu-
dents in physical science class. Unpublished Master’s
Thesis. Chicago: Saint Xavier University.
Griffith, S. A. (2005). Assuring fairness in school-based
assessment: Mapping the boundaries of teachers’ involve-
ment. Paper presented at the 31st Annual Conference of
International Association for Educational Assessments,
4-9 September. Abuja.
Hopkins, T. M. (2004). Gender issues in Mathematics’
achievement in Tennessee: Does rural school locale mat-
ter? A Ph.D. dissertation, University of Tennessee, Knox-
ville.
Howes, E. V. (2002). Connecting girls and science.
Constructivism, feminism, and education reform. New
York: Teachers College Press.
Howley, C. (2002). Research about Mathematics achieve-
ment in rural circumstance. Working paper, No. 4. Ath-
ens: Ohio University, Appalachian Collaborative Centre
for the study of learning, assessment and instruction in
Mathematics.
Hyde, J. S., Fennema, E., & Lamon, S. J. (1990). Gender
differences in mathematics performance. A meta-analy-
sis. Psychological Bulletin, 107, 139 – 155.
Mutemeri, J., & Mugweni, R. (2005). The extent to which
mathematics instructional practices in early childhood edu-
cation in Zimbabwe relates to or makes use of children’s
experiences. African Journal of Research in Mathemat-
ics, Science and Technology Education, 9(1), 49-54
Njabili, A. F., Abedi, S., Magesse, M. W., & Kalole, S. A.
M. (2005). Equity and school-based assessment: The case
of Tanzania. Paper presented at the 31st Annual Confer-
ence of International Association for Educational Assess-
ment, 4-9 Sept, Abuja, Nigeria.
Obodo, G. C. (1997). Principles and practices of math-
ematics education in Nigeria. Enugu: General Studies
division, Enugu State University of Technology (ESUT).
Opolot-Okurot, C. (2005). Student attitudes toward math-
ematics in Uganda Secondary Schools. African Journal
of Research in Mathematics, Science and Technology
Education, 9 (2), 167-174.
Reid, N. (2003). Gender and Physics. International Jour-
nal of Science Education, 25 (4), 509 – 536.
Sinnes, A. T. (2005). Approaches to gender equity in sci-
ence education. Two initiatives in sub-Saharan African
seen through a lens derived from feminist critique of
science. Oslo: Unipub. http://www.ils.u10.no/forskninig/
palidrgrad/doktorarhandlinger/docs/AstridSinnes
Avhandlingfeminist critque of science.oslo: Unipub.pdf.
UNESCO (2003). Gender and education for all: the leap for
equality. Global monitoring report 2003/2004. http://
www.unesco/oc.unesco.org/education/eta-report/2003-
pdf/chapter3.pdf.
United Nations (2000). U. N. millennium declaration 55/2
resolution adapted by the general assembly, September
18, 2000. http://www.un.org/milleniumgoals/.
West African Examination Council (2002). Chief Examiner’s
Report. Lagos: WAEC, Statistics Division.
Yoloye, E. A. (1998). Students’ gender and science achieve-
ment: Historical perspectives and their present and fu-
ture practice. In Naido, P., & Savage, M. (Eds.), Afri-
can Science and Technology in the new millennium. Cape
Town: Junta & Co.