RI-061 · The State of Mathematics Education in Nigeria — Waokmath Research & Insights
WAOKMATH Research & Insights
National Education Analysis Series
RI-061 · 2026
Report RI‑061 · Edition 2026 · Nigeria

The State of Mathematics Education in Nigeria.

A national evidence review of learning outcomes, foundational numeracy, equity, teachers, assessment practice, digital learning and the data infrastructure shaping mathematics education in Nigeria — benchmarked against international standards for learning measurement.

National system
40.1M
learners in the 2024/25 school census
Math proficiency
14%
JS2 learners at minimum proficiency (NALABE 2022)
Foundational numeracy
25%
children aged 7–14 with core numeracy skills (MICS 2021)
Equity gap
57pp
urban–rural gap: 43% vs 13%
01
Learning, not access, is the central challenge. Enrolment and system scale do not guarantee mastery.
02
Gaps widen as mathematics becomes more demanding. NALABE proficiency falls sharply from P3 to JS2.
03
Inequality is visible in foundational learning. Place and household wealth are strongly associated with outcomes.
04
Nigeria's indicators sit below regional and global benchmarks. Comparable to trends reported across Sub‑Saharan Africa.
05
Data can move from reporting to intervention. Diagnosis, targeted support and reassessment form one cycle.
Front matter

Abbreviations & Acronyms

FME Federal Ministry of Education
JS2 Junior Secondary 2
MICS Multiple Indicator Cluster Survey
NALABE National Assessment of Learning Achievement in Basic Education
NEDI Nigerian Education Data Initiative
P3 / P5 Primary 3 / Primary 5
SDG Sustainable Development Goal
UBEC Universal Basic Education Commission
UNICEF United Nations Children's Fund
WAEC West African Examinations Council
Front matter

Foreword

This report opens the Waokmath Research & Insights series with a single, deliberately broad question: what does the available evidence say about how well Nigerian children are learning mathematics? The series is intended for policymakers, school leaders, teachers, researchers and education-technology practitioners who share an interest in moving the national conversation from access to learning.

Rather than commissioning new fieldwork, this first report synthesises existing, credible national and international datasets — government statistics, household surveys and learning assessments — into a single evidence-based narrative, and closes with recommendations designed to be acted upon rather than merely read.

01

Executive Summary

Nigeria does not have a shortage of students studying mathematics. The deeper challenge is ensuring that students actually learn mathematics.

Nigeria operates one of Africa's largest education systems, with more than 40 million learners reported in the 2024/2025 school census. Yet national assessment data show that mathematics proficiency is low and falls sharply as learners progress: 50% of Primary 3 learners reach minimum proficiency, compared with 34% at Primary 5 and only 14% at Junior Secondary 2. Foundational numeracy data tell a similar story — only 25% of children aged 7–14 demonstrate core numeracy skills, with wide gaps between urban and rural children (43% vs 13%) and between the richest and poorest households (62% vs 5%).

These figures point to a system where access has scaled faster than learning, and where unresolved foundational gaps accumulate as mathematics content becomes more demanding. Nigeria also has real assets to build on: national assessment capacity, an expanding education-data infrastructure (NEDI), a substantial teaching workforce, and a growing EdTech ecosystem.

The next phase of mathematics education in Nigeria should move beyond counting enrolment and increasingly ask what learners can understand, apply, explain and use — and this report closes with concrete recommendations for students, teachers, schools, policymakers and EdTech providers built around that standard.

02

The Research Question

What is the current state of mathematics education in Nigeria, what major factors influence mathematics learning outcomes, and where are the greatest opportunities for improvement?

This question is deliberately broad. Rather than isolating a single variable, this report synthesises evidence across system scale, foundational learning, national assessment results, equity, teachers, students, assessment practice and digital learning — treating mathematics education as an interconnected system rather than a single classroom subject.

Sub-questions guiding this review

Scale

How large and how resourced is the system?

Learners, teachers, classrooms and public/private composition.

Outcomes

What do learners actually know?

Proficiency by grade level and foundational numeracy indicators.

Equity

Who is being left behind?

Urban/rural and wealth-quintile gaps in learning.

03

Why It Matters

Mathematics is more than an examination subject. Foundational numeracy supports later learning and enables people to interpret information, make quantitative decisions, solve problems and participate effectively in modern economic and technological environments.

When learners fail to develop foundational mathematical knowledge, the consequences can accumulate. A learner who has difficulty with number sense, basic operations, fractions, ratios and proportional reasoning may subsequently struggle with algebra, geometry, statistics, probability, trigonometry and calculus.

This means mathematics education should be viewed as a learning progression , not a sequence of isolated topics — which is why the evidence in this report is organised around where and why that progression breaks down.

04

National Context

N igeria's basic education system is organised under the 9-3-4 structure — six years of primary education, three years of junior secondary, three years of senior secondary and four years of tertiary education — administered jointly by federal, state and local authorities, with the Universal Basic Education Commission coordinating basic education policy and the Federal Ministry of Education setting national standards.

Mathematics is a compulsory subject at every level of basic and secondary education and a prerequisite for the Senior Secondary Certificate Examination (SSCE), administered by WAEC and NECO, which in turn determines access to tertiary education in science, technology, engineering and mathematics (STEM) fields. The scale of the system — over 215,000 schools and more than 40 million learners — makes mathematics education in Nigeria one of the largest single subject-learning challenges in the world.

System structure at a glance

Pre-Primary → Primary (P1–P6) → Junior Secondary (JS1–JS3) → Senior Secondary (SS1–SS3) → SSCE → Tertiary / STEM
05

Evidence Base

The Federal Ministry of Education's 2024/2025 Annual School Census reports the following:

2024/2025 Annual School Census — Federal Ministry of Education
IndicatorFigure
Total schools215,033
Schools reported124,543
Reporting rate57.9%
Learners40,126,175
Teachers1,193,768
Classrooms730,289
Learner–teacher ratio33.6
Learner–classroom ratio60.1

The same dataset reports that approximately 79% of learners are enrolled in public schools and 21% in private schools. The reporting rate of 57.9% is an important limitation — these statistics should be read as reported education-system data, not full national coverage.

Primary data sources

Assessment

NALABE 2022

National Assessment of Learning Achievement in Basic Education — mathematics proficiency across Primary 3, Primary 5 and JS2.

Household survey

MICS 2021 / MICS-EAGLE

Foundational numeracy among children aged 7–14, with urban/rural and wealth-quintile breakdowns.

System data

Annual School Census 2024/25

Federal Ministry of Education data on schools, learners, teachers and classrooms.

Infrastructure

NEDI

Nigeria Education Data Initiative — government-led effort to centralise and modernise education data.

06

What the Data Show

Assessment sample coverage

75,067 Primary 3 learners
71,041 Primary 5 learners
23,564 JS2 learners
5,690 schools sampled
36 + FCT states covered

Mathematics proficiency by grade

Mathematics — share reaching minimum proficiency
ClassReaching minimum proficiency
Primary 350%
Primary 534%
Junior Secondary 214%

Approximately half of Primary 3 learners reached the minimum mathematics proficiency level; two-thirds of Primary 5 learners did not; and approximately 86% of JS2 learners did not reach the defined minimum proficiency level.

Foundational numeracy equity indicators

Foundational numeracy — selected equity indicators
National
25%
Urban
43%
Rural
13%
Richest
62%
Poorest
5%
Source: UNICEF Nigeria Education Fact Sheets / MICS-EAGLE, 2021 data.
07

Key Findings

Finding 01

Foundational learning remains a major challenge

National evidence indicates substantial gaps in foundational numeracy among Nigerian children.

Finding 02

Proficiency declines across NALABE levels

Minimum mathematics proficiency fell from 50% in Primary 3 to 34% in Primary 5 and 14% in JS2.

Finding 03

Inequality matters

Learning outcomes vary significantly according to socioeconomic and geographic circumstances.

Finding 04

Nigeria can measure learning at scale

NALABE demonstrates that large-scale national assessment is possible.

Finding 05

Education data is becoming more important

Government-led initiatives such as NEDI are moving Nigerian education toward more integrated data systems.

Finding 06

Reporting coverage is incomplete

A 57.9% school-census reporting rate means national totals are a floor, not a ceiling, on system scale.

08

Deeper Analysis

9.1  The learning-progression problem

The report notes that mathematics performance declined as learners progressed from Primary 3 to Primary 5 and then to JS2. This does not necessarily mean students become less capable of learning mathematics as they grow older. A more plausible interpretation is that learning gaps accumulate faster than the education system is able to correct them. As mathematical content becomes more complex, students with unresolved foundational gaps encounter increasing difficulty.

Waokmath Insight

The mathematics problem students display today may be the learning gap they were unable to resolve yesterday.

9.2  The teacher and classroom-conditions factor

Teachers remain the most important human resource in mathematics education. But teacher performance should be understood within the system in which teachers work. A mathematics teacher may face large classes, limited instructional resources, insufficient preparation time, diverse student ability levels, pressure to complete the curriculum, and limited access to professional development.

Foundational Learning → Teaching → Resources → Conditions → Assessment → Confidence → Practice → Outcomes

9.3  The digital-learning opportunity

Digital technology presents an important opportunity for mathematics education. A well-designed digital mathematics platform can provide immediate feedback, repeated practice, automated assessment, personalised practice and learning analytics.

Technology is not automatically educational.

A digital textbook is still a textbook. The educational value comes from how technology is used to improve the learning process — the shift from data collection to data-informed action .

09

Equity & Context

Learning outcomes are influenced by the circumstances in which children live and learn. UNICEF's education analysis highlights significant disparities in foundational learning associated with socioeconomic status and location: 43% of urban children demonstrate foundational numeracy compared with 13% of rural children, and 62% of children from the richest households compared with 5% from the poorest.

This has a major implication: a national mathematics strategy cannot rely solely on a uniform intervention. Students in rural communities, low-income households, underserved schools and poorly resourced learning environments may require different forms and levels of support.

Equity is therefore not separate from mathematics education. It is part of mathematics education.

10

International Benchmarking

Nigeria's national indicators can be usefully situated within global and regional frameworks for measuring learning, even though direct score-for-score comparison across assessments is not appropriate.

10.1  SDG 4.1.1 and minimum proficiency

Sustainable Development Goal indicator 4.1.1 tracks the proportion of children and young people achieving at least a minimum proficiency level in mathematics at the end of primary and lower-secondary education. NALABE's minimum-proficiency framework is designed to be broadly consistent with this global reporting approach, allowing Nigeria's Primary 5 and JS2 figures to be read as contributions to SDG 4.1.1 monitoring.

10.2  Regional comparison

Cross-national learning assessments conducted across Sub-Saharan Africa have repeatedly found that a majority of learners do not reach minimum mathematics proficiency by the end of primary school, and that urban–rural and wealth-based gaps of the size observed in Nigeria are common across the region rather than unique to it. This positions Nigeria's challenge as part of a broader regional learning crisis rather than an isolated national anomaly.

Interpretation note. NALABE, MICS and international assessment frameworks use different instruments, sampling approaches and proficiency definitions. Benchmarking here is directional — it situates Nigeria's trend within a known global pattern — and should not be read as a like-for-like score comparison.
11

The Waokmath Insight

Waokmath Insight

Mathematics underachievement should not be treated simply as a student problem. It is a learning-system problem expressed through student performance.

This distinction changes the intervention. If the problem is assumed to be "students are not studying enough," the solution becomes more homework. If the problem is understood as "students have accumulated unresolved conceptual gaps," the solution becomes: diagnosis + targeted intervention + practice + feedback + reassessment.

Taken together, the evidence suggests that Nigeria's mathematics challenge will not be resolved by access alone — enrolment has already scaled to over 40 million learners, yet proficiency continues to fall as learners progress.

12

Implications by Stakeholder

For Students

Build confidence through progress

Strengthen foundational knowledge, practise consistently, receive immediate feedback, and correct misconceptions.

For Teachers

Practical, targeted support

Professional development, quality resources, useful assessment information, and technology that genuinely supports instruction.

For Schools

Systems, not one-off fixes

Early identification of learning gaps, targeted intervention, continuous progress monitoring, and teacher collaboration.

For Policymakers

Measure more than access

Investment must connect to measurable learning outcomes.

For Parents

Support beyond the classroom

Understand where gaps originate and encourage regular practice at home.

For EdTech

Beyond digitised content

Diagnostic assessment, personalised practice, adaptive learning, and measurable evidence of impact.

What are Nigerian children actually learning?

13

Recommendations

Priority 01

Measure early

Identify mathematics learning gaps before students reach high-stakes examinations.

Priority 02

Repair foundations

Do not assume students are ready for advanced mathematics simply because they progressed to a higher class.

Priority 03

Make assessment diagnostic

Assessment should help teachers determine what to teach next.

Priority 04

Evaluate digital interventions

Technology programmes should be judged by learning outcomes, not devices or downloads.

Priority 05

Build mathematical confidence

Competence develops through understanding, practice, feedback and problem-solving.

Priority matrix

Priority Problem signal Recommended response Success measure
01 · Foundational numeracy 25% of 7–14-year-olds demonstrate core numeracy skills. Early diagnostic screening + targeted remediation. Growth in mastered prerequisite skills.
02 · Transition to secondary NALABE proficiency reaches only 14% at JS2. Bridge programmes for number, fractions, algebra and problem solving. Reduced prerequisite gaps by JS1/JS2.
03 · Equity Large urban–rural and wealth-related differences. Context-sensitive resource allocation and offline-capable learning. Smaller outcome gaps across groups.
04 · Assessment Scores alone do not identify the misconception. Diagnostic item banks linked to prerequisite skills. Teachers act on error patterns.
05 · Digital learning Technology can scale content but not automatically learning. Measure learning gains, not usage alone. Verified pre/post learning improvement.

Proposed Waokmath field study

1,000+
Secondary school students
100+
Mathematics teachers
7
Assessment domains
Proposed output

The Waokmath Mathematics Learning Index — measuring strongest and weakest topics, common misconceptions, performance by class, learning gaps, student confidence, and areas requiring intervention.

14

Methodology

Report type: Secondary-data research and education-policy analysis.

Evidence base: This report synthesises evidence from Nigerian government education statistics, the national learning assessment, UNICEF education datasets and analyses, World Bank foundational-learning research, peer-reviewed research, and official education-data initiatives.

Methodological notes

A

Different years

The report combines datasets from 2021, 2022 and 2024/25 because no single national dataset captures access, system capacity, foundational learning and grade-level mathematics proficiency at the same time.

B

Different measures

Foundational numeracy, NALABE proficiency and school-census indicators measure different constructs. They should be read together, not treated as interchangeable scores.

C

Coverage matters

The 2024/25 school census reports a 57.9% reporting rate. NALABE, by contrast, used a nationally representative sample.

D

Association is not causation

Observed differences by wealth, residence or school context identify patterns and inequities. They do not, by themselves, prove that one factor caused the learning outcome.

15

Limitations

This report is not a new nationally representative survey. It synthesises existing evidence to identify major patterns, important learning challenges, structural issues, research gaps, and opportunities for intervention. It should not be interpreted as a replacement for primary national research.

NALABE. The NALABE mathematics proficiency figures use the assessment's defined minimum proficiency levels. They should not be interpreted as equivalent to WAEC examination pass rates.
Education statistics. The 2024/2025 Federal Ministry of Education Annual School Census reports a 57.9% reporting rate. National totals should be interpreted in light of this coverage limitation.
Foundational learning. MICS-EAGLE indicators measure specific foundational learning competencies and should not be interpreted as a complete measure of a child's overall mathematical ability.
Benchmarking. International comparisons in Section 10 are directional rather than statistical; differing instruments and sampling frames limit exact comparability across countries.
16

Stakeholder Voices — Guiding Questions

The following questions frame the qualitative fieldwork planned to accompany future editions of this series, capturing the lived experience behind the national indicators.

What makes mathematics difficult for you? Student
Which topics do you struggle with most? Student
Do you feel confident solving unfamiliar problems? Student
How often do you practise mathematics outside school? Student
Do you use AI or online resources to learn mathematics? Student
What makes you give up on a difficult problem? Student
What topics do teachers find hardest to teach? Teacher
What support do teachers actually need? Teacher
17

Glossary of Terms

Minimum proficiency level
The threshold level of skill in a subject that an assessment defines as the minimum acceptable standard for a given grade.
Foundational numeracy
The basic number, operation and reasoning skills that underpin all later mathematics learning.
Learner–teacher ratio
The average number of learners per teacher across the reporting system.
Wealth quintile
A household grouping used in surveys to divide the population into five equal segments by economic status, from poorest to richest.
Diagnostic assessment
Assessment designed to identify specific gaps or misconceptions in a learner's understanding, rather than only assign a score.
18

Sources

  1. Nigeria Education Fact Sheets: Analyses for Learning and Equity Using MICS Data UNICEF · April 2024 · unicef.org/nigeria
  2. 2021 Multiple Indicator Cluster Survey / National Immunization Coverage Survey Report National Bureau of Statistics / UNICEF Nigeria · August 2022
  3. National Assessment of Learning Achievement in Basic Education (NALABE 2022) Universal Basic Education Commission / UNICEF Nigeria
  4. Foundational Learning World Bank · worldbank.org
  5. Nigeria Education Statistics 2024 — Annual School Census Federal Ministry of Education, Nigeria · School Year 2024/2025
  6. Nigerian Education Data Initiative (NEDI) Federal Ministry of Education / Government of Nigeria
  7. SDG Indicator 4.1.1 Methodology UNESCO Institute for Statistics
Source integrity note. All quantitative claims in this report are traceable to identifiable sources. Waokmath Research & Insights prioritises Nigerian government sources, UN agencies, multilateral organisations, peer-reviewed research, and recognised assessment organisations.
19

About This Series

Waokmath Research & Insights is a research publication series accompanying Waokmath, a mathematics education platform covering the Nigerian curriculum from Grade 1 through Grade 11 and SSCE. The series synthesises credible national and international evidence to inform how mathematics is taught, assessed and supported across Nigeria, and to guide the design of diagnostic, evidence-based learning tools.

WAOKMATH Research & Insights

RI-061 · The State of Mathematics Education in Nigeria · 2026 Edition. This report is a secondary-data synthesis intended to inform policy and practice; it is not a substitute for primary national research. All figures are attributed to their original sources in Section 19.

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