Graduate Certificate In Engineering Management Unit Outline
MEM01 – Leadership and Organisational Behaviour
Unit Description: Leadership and Organisational Behaviour studies the principles, theories, and strategic applications of leadership within the context of contemporary engineering organisations. This subject critically examines leadership models, decision-making frameworks, organisational structures, and behavioural dynamics that influence team performance, innovation, and change management in complex engineering environments. A strong emphasis is placed on the interplay between leadership and organisational culture, enabling you to assess the impact of transformational leadership, servant leadership, and strategic leadership models on employee motivation, productivity, and organisational effectiveness. You will critically evaluate how leadership strategies shape corporate governance, stakeholder engagement, and ethical decision-making within engineering enterprises. This subject also explores organisational behaviour theories, focusing on human dynamics, conflict resolution, negotiation strategies, and behavioural change in engineering teams. Using evidence-based approaches, you will analyse how leaders foster adaptive organisational cultures, drive digital transformation, and implement strategic workforce planning to enhance global competitiveness in engineering-driven sectors.
Unit Learning Outcomes:
ULO1: Critically examine leadership theories, organisational behaviour models, and their application in fostering innovation, collaboration, and performance within engineering-driven organisations.
ULO2: Evaluate the role of organisational culture, behavioural dynamics, and change management strategies in shaping effective leadership and decision-making in engineering contexts.
ULO3: Apply leadership and negotiation strategies to manage stakeholder relationships, resolve conflicts, and drive strategic outcomes in complex engineering teams.
ULO4: Develop and present evidence-based leadership strategies that integrate ethical decision-making, corporate governance, and sustainability within organisational frameworks.
MEM02 – Cost Engineering
Unit Description: This unit provides advanced knowledge and practical skills in cost engineering, applicable across diverse engineering sectors including manufacturing, renewable energy, infrastructure, and technology development. Students will learn how to apply cost engineering methodologies to support planning, optimisation, and financial control of engineering systems, operations, and capital projects throughout the entire lifecycle.
The unit emphasises cross-sector applicability by exploring cost estimation, budgeting, forecasting, earned value management, and risk-based financial decision-making in a variety of engineering contexts. It integrates hands-on experience with professional tools such as MS Excel, CostX, Primavera, MS Project, and @Risk, equipping students to develop data-driven strategies that optimise cost performance while aligning with sustainability, innovation, and operational efficiency goals.
Unit Learning Outcomes:
ULO1: Apply cost engineering principles to support strategic and operational decision-making in engineering organisations across sectors such as manufacturing, energy, and infrastructure.
ULO2: Construct detailed cost estimates, budgets, and forecasts using appropriate methods and tools, including spreadsheet modelling and digital cost estimation software.
ULO3: Use project management software to implement cost tracking and earned value management in engineering projects.
ULO4: Plan life cycle costing and value engineering assessments to support cost-effective and sustainable engineering solutions.
ULO5: Apply cost risk analysis and scenario modelling using tools such as @Risk to support decision-making under uncertainty.
ULO6: Communicate financial implications and recommendations effectively to multidisciplinary engineering and management teams.
MEM03 - Project Management
Unit Description: The complexity of modern engineering projects requires a robust understanding of project management frameworks, risk mitigation strategies, and resource optimisation techniques. This subject critically examines project planning, scheduling methodologies, risk management principles, and resource allocation through a practical and analytical lens. You will explore various project management methodologies, including traditional, agile, and hybrid approaches, assessing their applicability in engineering contexts. A significant focus will be placed on decision-making in dynamic project environments, the interplay between stakeholder engagement and leadership, and the integration of digital tools for project execution. You will also reflect on their evolving leadership capabilities and adaptability in project-driven organisations, preparing you to lead and manage largescale engineering initiatives. This subject fosters’ both theoretical knowledge and practical skills, ensuring you are prepared to navigate complex engineering project environments with confidence and precision.
Unit Learning Outcomes:
ULO1: Analyse and discuss project management theories, frameworks, and scheduling techniques to ensure strategic alignment and efficient project execution in engineering contexts.
ULO2: Compare and contrast risk management frameworks and their impact on project efficiency and strategic decision-making in engineering environments.
ULO3: Examine and utilise resource allocation and optimisation tools and techniques to maximise efficiency and ensure the sustainability of engineering projects.
ULO4: Critically evaluate leadership approaches in project management, focusing on adaptability, stakeholder engagement, and team dynamics in complex engineering environments.
MEM04 - Systems Engineering
Unit Description: This subject provides a rigorous and interdisciplinary exploration of Systems Engineering as a structured approach to the design, integration, and management of complex engineering systems. A strong emphasis is placed on systems thinking, equipping you with analytical frameworks to conceptualise, structure, and optimise engineering solutions within dynamic and multi-layered operational environments. You will critically examine systems design methodologies, integration strategies, and reliability engineering principles, developing expertise in model-based systems engineering and lifecycle management. The subject explores functional decomposition, requirements engineering, system architecture development, verification and validation processes, and risk-based decisionmaking, ensuring you can systematically evaluate performance trade-offs, sustainability considerations, and operational constraints in large-scale engineering projects. A particular focus is placed on reliability and maintenance engineering, preparing you to assess and enhance system durability, failure prediction, and maintainability within safety-critical and performance-driven industries. By integrating both theoretical and applied perspectives, this subject fosters’ problem-solving, critical decision-making, and model-driven design capabilities, equipping you with the competencies to manage high-complexity engineering environments with precision and adaptability.
Unit Learning Outcomes:
ULO1: Examine and apply systems thinking methodologies to complex engineering challenges, ensuring holistic integration and optimisation of system components.
ULO2: Develop and evaluate systems design and integration frameworks, incorporating multi-disciplinary engineering principles to enhance performance, adaptability, and operational efficiency.
ULO3: Critically assess requirements engineering, system architecture, and trade-off analysis to optimise the functional and nonfunctional performance of engineering systems.
ULO4: Investigate and apply reliability and maintenance engineering strategies, ensuring system sustainability, failure prevention, and lifecycle resilience in engineering practice.
ULO5: Assess verification and validation processes in systems engineering, ensuring compliance, operational safety, and regulatory alignment in engineering project execution.
