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Effect of Sustainability Accounting Education on Students’ Carbon Cost Measurement Skills among Accounting Education Students in Nigerian Polytechnics

Abstract

Sustainability accounting has become increasingly important as organizations face growing demands to identify, measure, report, and manage the environmental and social effects of their activities. Carbon-related costs are particularly relevant because business operations may generate greenhouse-gas emissions through energy consumption, transportation, production processes, waste management, and other activities. Accounting professionals therefore require appropriate knowledge and skills to identify carbon-related expenditures, quantify emissions-related costs, classify carbon costs, and incorporate environmental information into organizational accounting and decision-making. However, Accounting Education students in Nigerian polytechnics may have limited exposure to sustainability accounting concepts and practical activities involving carbon cost measurement. Sustainability Accounting Education provides an opportunity to expose students to environmental accounting principles, carbon-related financial information, emission measurement concepts, and practical approaches to identifying and measuring carbon costs. Against this background, this study investigates the effect of Sustainability Accounting Education on carbon cost measurement skills among Accounting Education students in Nigerian polytechnics. The study will be anchored on Experiential Learning Theory, Human Capital Theory, and Stakeholder Theory. Experiential Learning Theory explains how students develop practical competencies through concrete learning experiences, reflection, conceptualization, and active experimentation. Human Capital Theory emphasizes the importance of investing in relevant knowledge and skills to improve students’ productivity, employability, and professional competence. Stakeholder Theory explains the importance of providing financial and non-financial information that enables organizations to respond to the environmental and informational interests of stakeholders. Collectively, these theoretical perspectives provide a suitable framework for explaining how Sustainability Accounting Education may influence students’ carbon cost measurement skills. The study will adopt a quantitative quasi-experimental research design. The population will comprise Accounting Education students enrolled in selected Nigerian polytechnics. A multistage sampling technique will be used to select states, polytechnics, departments, levels of study, classes, and eligible students. Data will be collected using structured questionnaires, sustainability accounting knowledge assessments, carbon cost measurement tests, practical accounting tasks, environmental accounting case studies, practical performance rubrics, observation checklists, and pre-test and post-test assessments. Sustainability Accounting Education will be assessed using indicators such as exposure to sustainability accounting concepts, environmental accounting principles, greenhouse-gas accounting, carbon accounting, carbon-cost concepts, carbon-emission measurement, environmental expenditure identification, environmental cost classification, carbon-related cost allocation, environmental cost reporting, sustainability reporting, environmental performance measurement, carbon disclosure, climate-related financial information, carbon pricing concepts, carbon taxes, emissions trading, carbon offsets, energy-cost analysis, waste-cost analysis, environmental compliance costs, environmental investment, environmental liabilities, environmental provisions, environmental budgeting, environmental cost control, environmental performance indicators, environmental management accounting, life-cycle costing, activity-based environmental costing, material-flow cost accounting, environmental management systems, corporate sustainability, sustainable development, environmental responsibility, stakeholder information needs, regulatory requirements, environmental standards, practical examples, case studies, classroom demonstrations, spreadsheet-based environmental calculations, carbon-cost exercises, group activities, individual assignments, project work, field-based activities, and assessment and feedback activities. Students’ carbon cost measurement skills will be assessed using indicators such as ability to identify carbon-related costs, distinguish carbon costs from conventional operating costs, identify emission sources, classify emission-related expenditures, identify direct and indirect carbon costs, quantify carbon-related activities, calculate carbon emissions, convert emission data into appropriate units, apply relevant emission factors, estimate carbon-related costs, calculate energy-related carbon costs, calculate transportation-related carbon costs, calculate production-related carbon costs, calculate waste-related carbon costs, identify environmental compliance costs, identify carbon taxes, calculate carbon-tax liabilities, evaluate carbon pricing information, account for carbon offsets, measure carbon-related expenditures, allocate environmental costs, classify environmental costs, assign carbon costs to products, assign carbon costs to processes, allocate carbon costs to departments, allocate carbon costs to activities, calculate unit carbon costs, calculate total carbon costs, prepare carbon-cost schedules, prepare environmental cost statements, prepare carbon-related accounting entries, record environmental expenditures, recognize environmental liabilities, recognize environmental provisions, prepare environmental budgets, monitor carbon-related expenditure, analyse carbon-cost variances, interpret environmental cost information, compare carbon costs across activities, identify cost-saving opportunities, evaluate carbon-reduction investments, analyse energy consumption costs, analyse transportation costs, analyse waste-management costs, analyse production-process costs, apply life-cycle costing, apply activity-based environmental costing, apply material-flow cost accounting, use environmental performance indicators, prepare carbon-related reports, interpret sustainability reports, interpret carbon disclosures, analyse climate-related financial information, communicate carbon-cost information, use spreadsheets for carbon-cost calculations, maintain carbon-cost records, verify carbon-cost data, identify measurement errors, correct carbon-cost calculation errors, maintain documentation, demonstrate numerical accuracy, demonstrate analytical ability, demonstrate accounting competence, demonstrate environmental accounting competence, demonstrate problem-solving ability, demonstrate decision-making ability, demonstrate digital competence, demonstrate professional judgement, and demonstrate overall carbon cost measurement competence. Descriptive statistics will be used to summarize students’ demographic and academic characteristics, exposure to Sustainability Accounting Education, sustainability accounting knowledge, and carbon cost measurement skill levels. Inferential statistical techniques, including paired and independent t-tests, analysis of covariance (ANCOVA), correlation analysis, and multiple regression analysis where appropriate, will be used to determine the effect of Sustainability Accounting Education on students’ carbon cost measurement skills. Where a quasi-experimental design is adopted, carbon cost measurement scores before and after exposure to Sustainability Accounting Education may be compared with those of a control group receiving conventional accounting instruction to determine changes associated with the educational intervention. Diagnostic tests will also be conducted to assess the reliability, validity, and robustness of the findings. The study is expected to find that Sustainability Accounting Education has a significant positive effect on carbon cost measurement skills among Accounting Education students in Nigerian polytechnics. Students exposed to structured sustainability accounting education are expected to demonstrate improved ability to identify, classify, calculate, allocate, record, analyse, and report carbon-related costs. Exposure to environmental accounting principles may improve students’ understanding of the relationship between environmental activities and accounting information. Greenhouse-gas accounting activities may strengthen students’ understanding of emission sources and carbon-related information. Carbon-cost exercises may improve students’ ability to identify expenditures associated with carbon emissions. Emission-measurement activities may strengthen students’ ability to quantify carbon emissions and apply appropriate measurement units. Environmental cost-classification exercises may improve students’ ability to distinguish environmental costs from conventional operating costs. Carbon-cost allocation activities may strengthen students’ ability to assign environmental costs to appropriate products, processes, activities, and departments. Environmental cost-reporting activities may improve students’ ability to communicate carbon-related financial information. Carbon-disclosure exercises may strengthen students’ ability to interpret environmental and sustainability information. Carbon-pricing activities may improve students’ understanding of how carbon prices affect organizational costs. Carbon-tax exercises may strengthen students’ ability to identify and calculate carbon-related tax obligations. Carbon-offset activities may improve students’ understanding of the accounting implications of carbon-offset arrangements. Energy-cost analysis may strengthen students’ ability to identify the carbon and financial implications of energy consumption. Transportation-cost activities may improve students’ ability to measure carbon-related costs associated with transportation. Production-cost activities may strengthen students’ ability to identify environmental costs arising from production processes. Waste-cost analysis may improve students’ ability to measure costs associated with waste generation and management. Environmental compliance-cost activities may strengthen students’ understanding of costs associated with meeting environmental requirements. Environmental investment activities may improve students’ ability to identify and evaluate expenditures directed toward environmental improvement. Environmental liability and provision exercises may strengthen students’ ability to recognize potential financial obligations arising from environmental activities. Environmental budgeting activities may improve students’ ability to incorporate environmental costs into organizational budgets. Environmental cost-control activities may strengthen students’ ability to monitor and manage carbon-related expenditures. Environmental performance measurement may improve students’ ability to interpret financial and non-financial indicators of environmental performance. Life-cycle costing activities may strengthen students’ ability to consider environmental costs throughout the life cycle of products and services. Activity-based environmental costing may improve students’ ability to assign environmental costs based on relevant activities. Material-flow cost accounting may strengthen students’ ability to identify material losses and associated environmental costs. Spreadsheet-based exercises may improve students’ ability to perform carbon-cost calculations efficiently and accurately. Case studies may expose students to realistic environmental accounting situations. Practical demonstrations may provide clear models of carbon-cost measurement procedures. Individual assignments may strengthen independent calculation skills. Group activities may improve collaborative analysis and problem-solving. Repeated practical exercises may improve students’ accuracy, confidence, speed, and professional judgement. However, the effectiveness of Sustainability Accounting Education may be constrained by limited availability of sustainability accounting materials, inadequate access to environmental accounting data, insufficient lecturer expertise in carbon accounting, limited exposure to industry-based environmental accounting practices, inadequate accounting laboratories, insufficient computers and spreadsheet resources, unreliable electricity supply, limited access to sustainability reporting examples, weak integration of sustainability accounting into Accounting Education curricula, large class sizes, limited practical training periods, outdated instructional materials, insufficient practical exercises, and inadequate university-industry collaboration. The study therefore expects practical, structured, industry-relevant, and adequately supervised Sustainability Accounting Education to contribute significantly to improved carbon cost measurement skills among Accounting Education students in Nigerian polytechnics. The study is expected to contribute to the literature on Sustainability Accounting Education, carbon cost measurement skills, sustainability accounting, environmental accounting, carbon accounting, environmental management accounting, greenhouse-gas accounting, carbon-cost measurement, environmental cost classification, carbon-cost allocation, carbon pricing, carbon taxes, carbon offsets, sustainability reporting, carbon disclosure, climate-related financial information, environmental expenditure, environmental liabilities, environmental provisions, environmental budgeting, environmental cost control, life-cycle costing, activity-based environmental costing, material-flow cost accounting, environmental performance measurement, Experiential Learning Theory, Human Capital Theory, Stakeholder Theory, accounting education, practical accounting education, environmental responsibility, sustainable development, professional accounting competence, employability skills, Accounting Education students, Nigerian polytechnics, and Accounting Education in Nigeria. The findings will provide useful information to the National Board for Technical Education, polytechnic administrators, Accounting Education departments, accounting educators, curriculum developers, professional accounting bodies, environmental regulators, sustainability professionals, employers, industry partners, and policymakers regarding strategies for strengthening students’ sustainability accounting competencies. The study will also provide evidence-based recommendations for integrating Sustainability Accounting Education into Accounting Education programmes, developing practical carbon-cost measurement exercises, providing relevant environmental accounting case studies and data, strengthening lecturers’ capacity in carbon accounting, incorporating spreadsheet-based carbon-cost calculations into accounting instruction, increasing students’ exposure to sustainability reports and carbon disclosures, expanding collaboration between polytechnics and organizations involved in sustainability reporting and environmental management, and aligning Accounting Education programmes with emerging sustainability accounting and carbon-management requirements in Nigeria.

Keywords: Sustainability Accounting Education, carbon cost measurement skills, sustainability accounting, environmental accounting, carbon accounting, greenhouse-gas accounting, carbon costs, environmental cost measurement, carbon pricing, carbon tax, sustainability reporting, carbon disclosure, environmental management accounting, practical accounting education, Accounting Education students, Nigerian polytechnics, Nigeria.