by Amrik Singh and Joy Garfield


In a world defined by rapid change, complexity, and interdependence, traditional linear ways of thinking are struggling to keep up. Whether we look at global supply chains, climate challenges, digital transformation, or organizational culture, a recurring truth emerges, everything is connected. This is why systems thinking,a mindset for understanding wholes rather than isolated parts, is becoming increasingly relevant across all sectors (Comstock, 2024). Systems thinking allows us to understand the perspective of multiple stakeholders in the situation and guards against jumping to the right solution, which human nature sometimes make us do. When we understand the notion that problems are multi-faceted and need the buy-in of multiple stakeholders to address the solutions, only then we can really unearth the understanding of complexity and ambiguity of the situation. Higher education students as future leaders of society, need to grasp the concept of systems thinking to explore the complexity and ambiguity of modern-day problems.
Understanding the Complexity of Modern Problems
For much of the 20th century, we operated on the assumption that problems could be broken down and solved independently. Problems and solutions were easily connected. But today’s challenges are mostly complex, dynamic, and interconnected, making reductionist approaches insufficient (Eftekhari Shahroudi et al., 2025).
A decision made in one area can unintentionally trigger effects in others. Without a systemic lens, those secondary impacts are missed until they become major problems. Dynamic conditions change faster than linear plans can keep up. Because challenges evolve through shifting interactions like climate events affecting energy markets, or geopolitical shifts affecting food systems a static, linear approach fails. A systemic perspective helps leaders adapt in real time. Climate change, digital transformation, public health, and security issues span sectors, borders, and disciplines. No single stakeholder can solve them alone; systems thinking helps identify leverage points for multi‑stakeholder actions.
Modern organisations function as complex adaptive systems shaped by culture, relationships, and information flows. Linear change models often fail because they ignore these interdependencies; systems thinking helps leaders identify leverage points, anticipate consequences, and design resilient structures (Ellis, 2024). Systems thinking literature alike argues that traditional problem‑solving methods lose effectiveness as societal and technological complexity grows, strengthening the case for dynamic, holistic approaches in organisational decision‑making (Eftekhari Shahroudi et al., 2025).
A Harvard Business Review article states that innovations often create unintended ripple effects because interactions across systems are overlooked reinforcing the need for a systemic perspective (Bansal and Birkinshaw, 2025). Problems have multiple interacting causes, not a single root. Reductionist thinking focuses on one cause at a time, but modern challenges involve overlapping drivers, environmental, economic, technological, political, and social. Addressing only one strand often creates new issues elsewhere. The demand for systems thinking based pedagogical higher education is thus very real and requires educators to embrace these methods of teaching and learning.
How Can Education and Learning Shift Toward Systems Thinking Literacy
As future leaders in an increasingly complex and demanding world, higher education students need a solid understanding of social, political, economic, and environmental issues, along with the confidence to propose well‑reasoned solutions. Systems thinking is increasingly recognised as a vital pedagogical approach in higher education, enabling learners to understand complexity, interdependence, and uncertainty within contemporary societal and organisational challenges.
As educators prepare students for an uncertain future, systems thinking literacy is emerging as a core skill. The future of jobs report (World Economic Forum, 2025) indicates that systems thinking, and empathy are very essential core skills needed by organisations. Case studies from engineering and technology education further illustrate the value of systems thinking pedagogy. Dhukaram et al. (2016) show how systems-oriented curricula enhance student capability in diagnosing multifaceted problems, fostering collaborative solution-building, and developing resilience in decision-making processes. These studies collectively highlight that systems thinking not only enhances subject-specific learning but also strengthens transferable skills such as critical reasoning, communication, and adaptive expertise, all very relevant to organisations as cited in the future of jobs report 2025.
Systems thinking pedagogy also allows students to dive into the complexity and ambiguity of modern-day challenges and allows them to understand the multiple stakeholder perspectives and worldviews. Only then can a rich picture of the problem can be ascertained. Studying relationships, patterns, and structures fosters deeper understanding than memorising isolated facts or writing notes of the situation alone. Frameworks such as Soft Systems Methodology (Checkland and Poulter, 2006) enhance critical thinking and decision‑making from multiple perspectives. Sustainability education literature also stresses that complex global issues require integrative thinking, interdisciplinary collaboration, and shared sense‑making, the central tenets of systems thinking (Ezeaku, 2024).
Soft Systems Methodology, although not new, has proven effective across a wide range of settings for tackling complex modern-day problems. Its seven-stage process offers a structured approach to exploring “wicked” issues by first examining what is happening in the real world from the viewpoints of various stakeholders. The methodology then moves to imagining an ideal world, one free from constraints, from multiple stakeholder perspectives, helping to surface differing expectations, needs, and aspirations for a future idealised system. Students should be encouraged to use empathetic dialogue to appreciate the diverse viewpoints present in the situation. By comparing real-world conditions with these idealised models, Soft Systems Methodology enables the development of feasible, mutually acceptable paths forward.
Recent scholarship highlights that real-world, experiential learning environments help students develop the ability to interpret dynamic systems and identify leverage points for meaningful change (Alford et al., 2025). Such approaches support a shift from linear, fragmented learning toward holistic understanding, enabling students to explore the multiple interacting forces shaping modern problems. Soft Systems Methodology can help develop this understanding.
The importance of systems thinking in higher education is also evident in efforts to prepare students for professional environments characterised by complexity and rapid change. As Elsawah, Ho, and Ryan (2022) note, teaching systems thinking requires intentional integration of modelling, reflection, and interdisciplinary engagement to help students internalise systemic concepts. Their work demonstrates that learners benefit from iterative exploration of system behaviours, reinforcing deeper conceptual understanding and long-term retention.
A Mindset for the 21st Century
Across disciplines, systems thinking offers a transformative framework for higher education, supporting educators and students in jointly navigating complex realities while fostering the next generation of holistic, strategic, and future-oriented thinkers.
At its core, systems thinking is more than a method, it is a mindset that promotes deeper insight, anticipatory understanding, and long‑term thinking. Scholars and practitioners argue it is essential for addressing intertwined challenges like climate disruption, social inequality, and technological acceleration (DigitalVital HUB, 2025). By helping individuals and organisations recognise interconnected structures, systems thinking supports more informed, sustainable, and strategic action, shifting us from short‑term fixes to long‑term solutions rooted in an understanding of whole systems (Ellis, 2024).
The combination of Soft Systems Methodology and empathy enhances systems thinking by placing equal emphasis on the human elements and the technical components. It focuses on designing solutions that function not only in theory but also in the complex, unpredictable realities of human‑centred environments. Engaging in empathetic dialogue helps reveal stakeholders’ perspectives and experiences. When problems are rooted in human complexity and ambiguity, the solutions must be human centric also.
We live in an era defined by complexity and constant change. Linear thinking on its own is no longer enough. Systems thinking offers powerful tools for higher education students to see the bigger picture, understanding interconnections, and designing solutions that work not just today, but for generations ahead. As future leaders of society this is a vital commodity that cannot be overlooked. Across sustainability, technology, education, and organisational practice, the evidence converges: systems thinking is shifting from a possibility to a must‑have capability for future leaders (Bansal and Birkinshaw, 2025; Schoormann et al., 2025).
References.
Alford, K.R., Stedman, N.L.P., Bunch, J., Baker, S. and Roberts, T.G. (2025) ‘Real-world experiences in higher education: contributing to developing a systems thinking paradigm’, Journal of Experiential Education, 48(1), pp. 169–188.
Bansal, T. and Birkinshaw, J. (2025) ‘Why you need systems thinking now’, Harvard Business Review, September–October.
Checkland, P. and Poulter, J. (2006) Learning for action: A short definitive account of Soft Systems Methodology and its use for practitioners, teachers and students. Hoboken: Wiley.
Comstock, N.W. (2024) ‘Systems thinking’, EBSCO Research Starters.
Dhukaram, A., Sgouropoulou, C., Feldman, G. and Amini, A. (2016) ‘Higher education provision using systems thinking approach – case studies’, European Journal of Engineering Education, 43, pp. 1–23.
DigitalVital HUB (2025) ‘Systems thinking in innovation design and sustainability: Critical framework for seeing the whole’, 21 March.
Eftekhari Shahroudi, K., Conrad, S., Speece, J., Reinholtz, K., Span, M.T., Chappell, S., Saulter, Q. and Bokhtier, G.M. (2025) ‘Why systems thinking?’, in Practical Systems Thinking. Cham: Springer.
Ellis, J. (2024) ‘Unlocking complex problems: the power of systems thinking’, TheSystemsThinking.com, 30 September.
Elsawah, S., Ho, A. and Ryan, M. (2022) ‘Teaching systems thinking in higher education’, INFORMS Transactions on Education, 22, pp. 66–102.
Ezeaku, E.C. (2024) ‘Systems thinking as a paradigm shift for transformational sustainability’, Global Scientific Journal, 12(1).
Schoormann, T., Möller, F., Hoppe, C. and vom Brocke, J. (2025) ‘Digital sustainability: understanding and managing tensions’, Business & Information Systems Engineering, 67, pp. 429–438.
World Economic Forum (2025) The Future of Jobs Report 2025.
Dr Amrik Singh is a Senior Teaching Fellow at Aston University, UK. He has over 15 years of academic experience in Higher Education. He is also a Senior Fellow of the Advance HE, SFHEA. His teaching areas includes operations management, effective management consultancy, and business operations excellence.
Joy Garfield holds a PhD in Informatics from the University of Manchester, UK. She is a Senior Teaching Fellow and Deputy Head of Department for Business Analytics and Information Systems at Aston Business School, Aston University, UK. With over 20 years of experience in academia, Joy is a Senior Fellow of the Higher Education Academy. Joy is currently an external examiner for the University of Westminster Tashkent, Uzbekistan and a member of the Governing Council of the Society for Research into Higher Education.
