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Aug 21, 2026¡Zenodo (CERN European Organization for Nuclear Research)
0 cites
Ethics, sustainability, and society

Vasuk M., Anjay Kumar Mishra, Dinesh Kumar, Shila Mishra ¡ 6 authors

Ethics in Future Education refers to the principles, values, standards, and moral responsibilities that guide the development, implementation, governance, and application of educational policies, technologies, research, and institutional practices in an increasingly digital and interconnected world. As higher education undergoes rapid transformation through Artificial Intelligence (AI), Industry 5.0, digital technologies, automation, globalization, and data-driven decision-making, ethical considerations have become central to ensuring that technological advancement serves humanity while preserving fairness, transparency, accountability, privacy, inclusion, and human dignity. Ethics provides the moral foundation upon which educational institutions build trust, protect stakeholder interests, encourage responsible innovation, and cultivate socially responsible graduates capable of addressing complex global challenges.The primary objective of ethics in future education is to ensure that educational transformation remains human-centred while promoting academic excellence, social justice, responsible technological development, and sustainable institutional growth. Universities increasingly integrate ethical principles into teaching, research, governance, policy formulation, digital transformation, and community engagement to prepare learners for professional environments where ethical reasoning and responsible decision-making are indispensable. Ethical education extends beyond compliance with legal requirements by encouraging individuals to develop integrity, empathy, accountability, respect for diversity, environmental responsibility, and commitment to the common good.Artificial Intelligence has fundamentally transformed higher education while simultaneously introducing new ethical challenges. AI-powered educational systems support personalized learning, intelligent tutoring, predictive analytics, automated assessment, research analysis, administrative automation, and institutional decision-making. Although these technologies significantly improve efficiency and educational quality, they also raise ethical concerns regarding algorithmic bias, transparency, accountability, fairness, privacy, surveillance, academic honesty, and human autonomy. Universities must therefore establish ethical frameworks that ensure AI systems are developed, deployed, and monitored responsibly while maintaining human oversight and protecting the rights and dignity of students, educators, researchers, and society.Digital transformation has further expanded the ethical responsibilities of educational institutions by increasing dependence on digital platforms, cloud computing, blockchain technologies, learning management systems, virtual classrooms, digital libraries, online assessments, research databases, and institutional information systems. While digital technologies improve accessibility, flexibility, collaboration, and educational innovation, they also generate ethical concerns relating to cyber security, digital equity, misinformation, intellectual property protection, online behaviour, digital well-being, and responsible use of educational technologies. Universities therefore require comprehensive ethical governance mechanisms that balance technological innovation with institutional responsibility and societal trust.Ethics plays a fundamental role in teaching and learning by fostering educational environments characterized by honesty, fairness, respect, inclusion, and mutual responsibility. Faculty members are expected to deliver accurate knowledge, evaluate students impartially, respect diversity, encourage critical thinking, and create inclusive learning experiences that recognize the needs of learners from different cultural, social, linguistic, and economic backgrounds. Students likewise have ethical responsibilities that include academic honesty, respect for intellectual property, responsible collaboration, professional conduct, and ethical use of digital resources. Ethical teaching promotes not only intellectual development but also character formation and lifelong civic responsibility.Research ethics constitute another essential dimension of future education because universities serve as centres of knowledge creation, scientific discovery, and technological innovation. Ethical research requires integrity, transparency, honesty, accountability, informed consent, responsible data management, protection of research participants, avoidance of plagiarism, proper authorship practices, conflict-of-interest disclosure, and adherence to established scientific standards. As Artificial Intelligence increasingly supports research activities through data analysis, literature review, content generation, predictive modelling, and simulation, universities must ensure that AI-assisted research remains transparent, reproducible, ethical, and subject to appropriate human supervision.Institutional governance is closely connected to ethical education because educational leaders establish policies, regulations, strategic priorities, and organizational cultures that shape institutional behaviour. Ethical governance promotes transparency, accountability, fairness, participatory decision-making, responsible financial management, equitable resource allocation, respect for stakeholder rights, and compliance with national and international regulatory frameworks. Governing boards, academic councils, ethics committees, quality assurance units, and administrative leaders collaborate to establish ethical standards that guide institutional operations while strengthening public confidence and organizational credibility.Student development represents a central objective of ethics in future education because graduates are expected not only to possess technical knowledge but also to demonstrate ethical reasoning, professional responsibility, leadership, empathy, intercultural competence, and social commitment. Universities integrate ethics across curricula through interdisciplinary learning, case-based discussions, experiential education, community engagement, service learning, professional ethics courses, and leadership development programmes. Such educational experiences prepare students to address ethical dilemmas arising within healthcare, engineering, business, law, education, environmental management, public administration, information technology, and emerging digital professions.Innovation and entrepreneurship increasingly require ethical consideration because technological progress has profound implications for society, economic development, environmental sustainability, and human well-being. Universities encourage innovation while emphasizing responsible research, ethical product development, sustainable technological advancement, social responsibility, and respect for human rights. Artificial Intelligence, biotechnology, robotics, autonomous systems, quantum computing, and digital platforms offer significant opportunities for innovation, yet they also require careful ethical evaluation regarding fairness, accountability, safety, environmental impact, and long-term societal consequences. Responsible innovation ensures that scientific and technological progress contributes positively to humanity while minimizing potential risks.Data governance has become an increasingly important ethical concern because higher education institutions collect, analyse, and store large volumes of personal, academic, administrative, and research information. Ethical data management requires secure storage, informed consent, privacy protection, transparency, cyber security, responsible data sharing, and compliance with applicable legal and institutional regulations. Artificial Intelligence further increases the importance of ethical data governance because intelligent algorithms depend upon large datasets that must be collected, processed, and utilized responsibly. Universities therefore establish ethical guidelines that protect individual privacy while enabling responsible educational research, institutional analytics, and technological innovation.Globalization has expanded the scope of educational ethics by connecting universities across diverse cultural, political, legal, and social environments. International collaboration requires mutual respect, intercultural understanding, academic freedom, equitable partnerships, responsible knowledge sharing, ethical research collaboration, and protection of intellectual property. Universities participate in global educational networks while ensuring that ethical principles remain consistent across international partnerships, student mobility programmes, collaborative research initiatives, and multinational educational projects. Such global engagement promotes peaceful cooperation, cultural diversity, scientific advancement, and responsible global citizenship.Sustainability represents a fundamental ethical responsibility within future education because universities contribute significantly to environmental stewardship, social justice, economic resilience, and sustainable development. Ethical educational institutions integrate sustainability into teaching, research, campus operations, governance, and community engagement while supporting the United Nations Sustainable Development Goals (SDGs). Universities encourage responsible consumption, renewable energy adoption, climate resilience, environmental conservation, inclusive education, gender equality, and ethical leadership, thereby preparing graduates to address global sustainability challenges through informed and responsible action.Assessment and evaluation within higher education must also adhere to ethical principles to ensure fairness, transparency, validity, reliability, and inclusiveness. Universities establish ethical assessment practices that eliminate discrimination, minimize bias, protect confidentiality, promote accessibility, and accurately evaluate student achievement.

Open access
2 source records
Sustainability in Higher Education
Digital Education and Society
Ethics and Social Impacts of AI
Original source
Jun 9, 2026¡Stanford Digital Repository
0 cites
Sustainable Classroom Furniture Design, Production and Supply Chain in Malawi

Sofie Roux, Gregory Deierlein, Stanford University

Over 250 million children are unable to attend school, and hundreds of millions more do not have access to the educational technology and infrastructure that would prepare them to participate in the opportunities and economies of the future. Creating universal access to knowledge and education is one of the most transformative opportunities of our time. The work described in this thesis began in Malawi, a nation of 22.8 million people in Southern Africa where 81% of the population lives in rural areas, and 90% of students live outside the national electrical grid. Besides access to digital infrastructure, students in Malawi face lack of access to physical infrastructure: 62% (3.2 million) of all school-aged students lack access to desks and chairs in classrooms. The thesis builds on the foundation set by my social enterprise, BloomBox Design Labs (BBDL), which has applied design thinking and sustainability principles to advancing access to high quality education infrastructure and electrification, through the creation of state-of-the-art STEAM education labs with high speed connectivity, capable of functioning sustainably in off-grid, austere, and remote educational environments. This thesis considers the next steps in scaling physical educational infrastructure in Malawi through the design and sustainable production of school furniture, from recycled high-density polyethylene (HDPE) plastic. HDPE plastic waste was identified as an abundant and sustainable raw material for the creation of school furniture. This idea was pursued in five steps: 1) identification of HDPE as an accessible material in Malawi, 2) design of prototype furniture based on educational needs and ergonomic considerations, 3) material testing to determine mechanical properties and environmental impact of recycled HDPE, 4) optimization of assembly and collaborative furniture configurations for educational environments, and 5) analysis of supply chain integration and sustainable production for deployment in Malawi. Material tests found HDPE to be a versatile and strong material. Thickness of HDPE sheets was optimized to balance considerations of strength, transportability, and resource consumption. The final desk-chair unit can be flat-packed for transport to remote environments, assembled without tools or hardware, produces zero waste in its fabrication process and performs well in different environments and for students of varying size. With completion and testing of proof of concept, the real-world production process of recycled HDPE furniture in rural Malawi was modeled, with considerations of sustainability and vertical integration of production, and the creation of circular economies that build capacity in local communities. Community partners were identified to source and clean plastic, a synergistic relationship with an established HDPE recycling enterprise was forged, a strategy to use existing BloomBox labs in their environments to sustainably power the furniture manufacturing process was developed, revenue streams to support production were identified, and transportation plans with existing collaborators for completed furniture to reach communities from which HDPE was sourced were made. This integrated process strived to embody the Malawian ideal of Othakarhaka; passing forward the kindness, and is set to launch in July 2026. Ultimately, this thesis has aimed to join the movements that see the future of our planet in the disruptive ideas, fresh energy, and unlimited potential of its last-mile communities.

Open access
Sustainable Design and Development
Sustainability in Higher Education
Educational Environments and Student Outcomes
Original source
Nov 28, 2025¡ASCILITE Publications
0 cites
Virtual hotels, real skills

Mary Jesselyn Co, Bruce Mitchell, Lisa Jordan Powell

This paper describes the development and implementation of an innovative hotel carbon reduction simulation aimed at developing sustainability competencies in business students. Using the Harvard Business School "Net Zero" simulation, we assess how interactive simulation-based learning opportunities improve students' self-assessment of the eight sustainability competencies with a mixed-methods approach. The research examines critical gaps in knowledge of how simulation-based methods can develop integrated competency sets needed to solve complex sustainability challenges. The simulation assigns around 950 first-year management students as hotel managers tasked with achieving 50% emission reductions over seven years while maintaining financial performance. Students select from 29 sustainability initiatives across Energy, Purchasing, and Management categories, working within realistic constraints of carbon budgets, site-specific emission factors, and dynamic market conditions. Our comprehensive analytical design combines pre-post competency surveys with cluster analysis of strategic approaches, and qualitative analysis of learning reflections. Anticipated outcomes are enhanced competency development across all eight dimensions, with gains in systems-thinking, futures-thinking, and implementation competencies. The research aims to provide empirical proof for developing specific sustainability competences as well as demonstrating scalable approaches of integrating sustainability education into core business curriculum.

Open access
Sustainability in Higher Education
Hospitality and Tourism Education
Educational Games and Gamification
Original source
Aug 3, 2024¡2024 ASEE Annual Conference & Exposition Proceedings
0 cites
Board 26: Reducing Environmental Impact in Higher Education: Curriculum Design for the Sustainable-Unit Operations Laboratory

Ariel Chan, Chijuan Hu

As outlined in the Paris Agreement, the global commitment to achieving net-zero emissions by 2050 necessitates a multifaceted approach encompassing clean energy initiatives and carbon taxation.Higher education institutions, recognizing their role as key contributors to sustainability, are increasingly focusing on reducing their carbon footprint.The teaching laboratories, essential for various disciplines, contribute significantly to the university's carbon footprint.In this study, we applied the common practices of Life Cycle Analysis (LCA) in the industry to the Unit Operations Laboratory, which resembles the industrial settings yet focuses on teaching and learning that may not have set production scopes nor define operation conditions and processes (i.e. for learning purposes and study impact of various factors on common chemical processes).As learning is the main objective in undergraduate laboratories, LCA methodologies related to laboratory equipment and incorporating technical information on global climate initiatives, clean energy, and the Paris Agreement need to be followed, but some modifications to make such calculations possible.To illustrate the feasibility of this approach, a case study on bioethanol production through yeast fermentation and subsequent distillation processes is employed as a proof-ofconcept.This case study serves as a platform for estimating LCA and redesigning experiments with the aim of reducing the carbon footprint.Since not all chemical process units are designed the same (i.e.sizes, power/production capacity), this project is a collaborative effort internationally amongst universities with similar equipment but different sizes.The carbon footprint approaches, and the preliminary data collected can enable fine-tuning and test the robustness of the approaches and models.The Unit Operations Laboratory emerges as a valuable platform for students to assess their carbon footprint and actively engage in practical LCA applications.This research contributes to the broader goal of embedding sustainability principles within the educational framework, fostering a generation of professionals equipped with the knowledge and skills necessary to address environmental challenges.

Open access
Chemistry and Chemical Engineering
Sustainable Industrial Ecology
Sustainability in Higher Education
Original source
Jan 1, 2024¡IEEE Transactions on Engineering Management
16 cites
Uncovering the Critical Drivers of Blockchain Sustainability in Higher Education Using a Deep Learning-Based Hybrid SEM-ANN Approach

Mohammed Alshamsi, Mostafa Al‐Emran, Tuğrul Daim, Mohammed A. Al‐Sharafi · 6 authors

The increasing popularity of Blockchain technology has led to its adoption in various sectors, including higher education. However, the sustainability of Blockchain in higher education is yet to be fully understood. Therefore, this research examines the determinants affecting Blockchain sustainability by developing a theoretical model that integrates the protection motivation theory (PMT) and expectation confirmation model (ECM). Based on 374 valid responses collected from university students, the proposed model is evaluated through a deep learning-based hybrid structural equation modeling (SEM) and artificial neural network (ANN) approach. The PLS-SEM results confirmed most of the hypotheses in the proposed model. The sensitivity analysis outcomes discovered that users' satisfaction is the most important factor affecting Blockchain sustainability, with 100% normalized importance, followed by perceived usefulness (58.8%), perceived severity (12.1%), and response costs (9.2%). The findings of this research provide valuable insights for higher education institutions and other stakeholders looking to sustain the use of Blockchain technology.

Open access
Blockchain Technology Applications and Security
Big Data and Business Intelligence
Technology Adoption and User Behaviour
Original source
Mar 3, 2022¡Sustainability
26 cites
Fostering Equality in Education: The Blockchain Business Model for Higher Education (BBM-HE)

Semen Son-Turan

This paper seeks to address which business model in higher education that fosters SDG 4, is adequate for the post-pandemic period. To that end, it introduces the “Blockchain Business Model for Higher Education” (BBM-HE) and a transformed business model canvas framework based on existing literature, concepts, theories and findings relating to most of the pressing issues in higher education from the present study. To determine these issues, secondary data is used in the qualitative research design by applying inductive content analysis techniques to online reports. The originality of this study lies in the “adaptive” perspective to the requirements of the post-pandemic higher education landscape, which consists of modifications to the core elements of higher education, the integration of blockchain technology into the entire system, and a stronger approach to sustainability practice through sustainability tokens. The envisaged model sets out to provide a roadmap for all stakeholders, but most importantly, “decentralized” higher education institutions of the future and the “employable skills-seeking” proactive students all over the world, as opposed to the former “solely degree-focused and affluent” consumers of educational offerings. This study contributes to higher education literature in terms of business models, blockchains, pandemics, and sustainability.

Open access
COVID-19 and Mental Health
Educational Leadership and Innovation
Sustainability in Higher Education
Original source
Jun 21, 2021·˜The œEuropean Proceedings of Social & Behavioural Sciences
0 cites
A Generated Model Of Business Performance In A Higher Education Institution Subdivision

Tatyana Miroshnikova

The effective management of university resources becomes more important when solving the task of developing the management system of higher education. The development of higher education requires the development of better ways to manage financial flows in this area. Strengthening the competitive position of universities is ensured through a combination of centralized and decentralized management, the organizational and financial models for the activities of departments, the optimal ratio of public and private financing of education. As the financial model of each structural division of the university is an integral part of the financial system of the university as a whole, it seems appropriate to develop the process of budgeting academic subdivisions within the organizational and financial model of the university. The study presents a financial model of the university division, designed to decentralize the budgeting process in the university to form an independent plan of financial and economic activities of the department. The transfer of authority and responsibility for expenses to subdivisions ensures financial independence and increases the accuracy level of planning. This allows making effective management decisions that provide the activities of the main academic units. The proposed approach is planned to be fully integrated into the overall planning and budgeting process at Vladivostok State University of Economics and Service. The budgeting system helps the authority not only to make an operational assessment of the results of its activities, to predict indicators for the future but also contributes to making decisions aimed at reducing costs and increasing profits.

Open access
Sustainability in Higher Education
Engineering Education and Curriculum Development
Higher Education and Employability
Original source
Aug 23, 2019¡International Journal of Innovative Technology and Exploring Engineering
1 cites
University Autonomy and Sustainable Finance: A Case of Royal University of Bhutan

Authors unavailable

Royal University of Bhutan was established in 2003 through Royal Charter. RUB is a decentralized university with eight colleges distributed across the country. In the year 2011, RUB became fully autonomous university. After two years of successful autonomy, the RUB was beginning to sense the gradual decline in government funding. This has put to test the future sustainability of the university. Colleges under RUB have saved the funds that was granted by the royal government of Bhutan (RGoB) to sustain in the future as there began gradual decline in grants during the coming years (Rigyal, 2013). This study is aimed to find the present investment policy of the colleges under RUB and recommend investment products for them to generate future sustainable income for the colleges & university. In order to assess the knowledge of the investment, expected return & risk and the preference of the colleges under RUB a set of questionnaire was administered. A total of 20 respondents, including President, finance personal and administrative officer, from 5 colleges (representing more than 60% of colleges) under RUB were taken for the study. Responses reveal the general investment policy of the colleges, present investment avenues adopted and return on them. All these facts were analyzed to propose portfolio for the colleges, which can help them to generate sustainable incomes.

Open access
Sustainability in Higher Education
Sustainable Development and Environmental Policy
Original source