Introductory description

In an increasingly complex, global and technology-driven environment, organisations require engineers who can deliver technical excellence while effectively managing projects, people, systems and change within a framework of professional responsibility. Engineering excellence extends beyond technical competence to include commercial awareness, ethical and professional judgement, leadership, inclusivity, sustainability, and consideration of risk and security. This module adopts project management as an integrating, systems-based framework through which students critically explore how engineering excellence is achieved and sustained in practice. Students will examine how engineers contribute to organisational success by planning and delivering projects, leading teams, assuring quality, embedding continuous improvement, and making informed decisions in complex and uncertain contexts. The module emphasises the role of the engineer in responding to commercial, regulatory, environmental, societal and security challenges, and in balancing competing stakeholder needs. It also supports students’ professional formation through critical reflection on personal performance, leadership behaviours and continuing professional development (CPD), aligned with the expectations for progression towards Chartered Engineer (CEng) status.

Module aims

Outline syllabus

This is an indicative module outline only to give an indication of the sort of topics that may be covered. Actual sessions held may differ.

• Engineering Excellence, Professional Practice and External Drivers [LO1, LO5]

• Engineering excellence in organisational and project contexts

• The role of the professional engineer in delivering value and managing complexity

• Professional standards, ethics and codes of conduct

• External drivers: regulatory, societal, commercial and security considerations

• Introduction to CPD, reflective practice and progression towards Chartered Engineer status

• Project Management as an Integrative and Systems-Based Framework [LO2, LO1]

• Characteristics of engineering projects and success criteria

• Project lifecycle, governance and systems thinking

• Project management methodologies (Waterfall, Agile, Hybrid)

• Planning and control: scope, schedule, cost, quality and resources

• Risk, security and resilience management in projects

• Monitoring, performance evaluation and decision-making

• Strategic Leadership Thinking and Commercial Awareness [LO1, LO4, LO2]

• Responsible and ethical management in engineering organisations

• Leadership theories, styles and professional responsibility

• Stakeholder theory and decision-making in complex environments

• Commercial drivers, value creation, cost awareness and organisational performance

• Legal and regulatory frameworks affecting engineering practice

• Intellectual Property Rights (IPR) and knowledge management

• Teamwork, Culture and Change Management [LO4, LO2, LO1]

• Inclusive leadership and team effectiveness and dynamics in high-performance cultures

• Equality, Diversity and Inclusion (EDI) in engineering organisations

• Communication, influence and decision-making in teams

• Organisational behaviour and human factors

• Leading and managing change in engineering contexts

• Links between inclusive culture, innovation, risk awareness and project success

• Professional Communication, Reflection and CPD [LO6, LO7]

• Communicating engineering and managerial information to diverse audiences

• Professional reporting, technical writing and presentations

• Group-based communication and collaborative outputs

• Critical reflection on personal performance, teamwork and leadership

• Planning, justifying and recording CPD aligned to professional standards

• Preparing for graduate employment and progression towards Chartered Engineer status

• Engineering Decision-Making in Complex Systems [LO1, LO2, LO3]

• Decision-making models, tools and techniques

• Managing uncertainty, risk and trade-offs

• Integration of quality, sustainability and security considerations in decisions

• Data-informed and judgement-based decision-making

• Ethical and professional accountability in engineering decisions

• Quality Management, Systems Integrity and Continuous Improvement [LO3, LO2]

• Evolution of quality: inspection, control, assurance and management

• Quality Management Systems (e.g. ISO 9001)

• Continuous improvement methodologies:
  o Statistical Process Control (SPC) and 7 Quality Tools
  o Total Productive Maintenance (TPM)
  o EFQM Excellence Model o Failure Modes and Effects Analysis (FMEA) o Quality Function Deployment (QFD)

• Relationship between quality, risk, value and decision-making

• Maintaining system integrity, reliability and security in engineering processes

Environmental, Societal and Lifecycle Responsibility [LO5, LO1]

• Sustainable development principles and lifecycle thinking

• Environmental management systems (e.g. ISO 14001)

• Corporate Social Responsibility (CSR) and responsible innovation

• Environmental protection, governance and regulatory compliance

• Managing environmental, societal and security impacts of engineering activity

• Strategies to minimise adverse impacts and enhance sustainability

• Secure Engineering Practice [LO4, LO5, LO3, LO1]

• Ethical frameworks and professional accountability

• Legal frameworks (e.g. Equality Act 2010) and standards (e.g. BS ISO 30415)

• Embedding security, resilience and risk awareness (C10/M10) in engineering systems

• Interrelationships between ethics, inclusion, safety and security

Learning outcomes

By the end of the module, students should be able to:

• 1. Critically evaluate how organisations implement principles of responsible engineering management in response to evolving external drivers (e.g. regulatory, societal, technological and security-related), synthesising commercial, legal, ethical and professional considerations to inform effective engineering decision-making and leadership practice. (C8, M8, C10, M10, C11, M11, C15, M15)
• 2. Apply, analyse and critically appraise project management tools, techniques and methodologies in the planning and delivery of engineering projects, including the integration of risk, security, resource and stakeholder management, and the evaluation of leadership and change management approaches in complex contexts. (C15, M15, C10, M10)
• 3. Analyse and justify the selection and application of quality management systems and continuous improvement strategies, including consideration of system integrity, to enable engineering excellence, collaborative working, and the resolution of complex engineering problems. (C14, M14)
• 4. Critically analyse the role of security in achieving engineering excellence, and evaluate and apply holistic, proportionate approaches to identifying and managing security risks, assessing their impact on the working environment and professional engineering practice (C10, M10).
• 5. Critically examine the role of inclusive culture and ethical professional behaviour, recognising the responsibilities, benefits and importance of equality, diversity and inclusion for effective teamwork, leadership, and organisational performance in engineering contexts. (C11, M11)
• 6. Evaluate and synthesise organisational and industry approaches to managing the environmental, societal and security implications of engineering activities, and propose professionally justified, sustainable strategies that minimise adverse impacts across the product or process lifecycle. (C7, M7[D], C10, M10)
• 7. Communicate engineering, managerial and professional concepts effectively, demonstrating clarity, structure, audience awareness and ethical practice; and critically evaluate and reflect on personal performance and contribution within team and leadership contexts, synthesising and justifying insights to plan and direct continuing professional development towards professional registration (C16, M16, C17, M17, C18, M18).

Indicative reading list

Reading lists can be found in Talis

Interdisciplinary

This module integrates engineering, management, ethics, sustainability and human factors, reflecting the interdisciplinary nature of professional engineering practice.

Subject specific skills

• Apply and integrate project management, leadership and change management principles to the planning, delivery and evaluation of engineering solutions within complex organisational and project environments.
• Develop and justify economically viable, ethically responsible and sustainable engineering solutions, synthesising commercial, legal, professional and security considerations.
• Apply and evaluate quality management systems and continuous improvement methodologies to enhance performance, ensure system integrity and security, and address complex engineering problems.
• Analyse and evaluate risk, cost, value and impact in engineering decision-making, incorporating environmental, societal, health & safety, and security considerations.
• Exercise and justify professional engineering judgement and accountability in complex and uncertain contexts, consistent with ethical practice, professional standards, and the expectations of contemporary engineering practice.

Transferable skills

On successful completion of this module, students will be able to:

• Collaborate effectively and demonstrate leadership within professional engineering teams, taking responsibility for individual and collective performance while contributing to inclusive, ethical and high-performing working environments.
• Communicate and defend complex engineering, managerial and professional concepts clearly and coherently, using appropriate written, oral and visual formats, with critical awareness of audience, context and purpose.
• Apply and justify ethical and professional judgement in response to complex, uncertain and competing engineering requirements, consistent with professional codes of conduct and societal responsibilities.
• Critically reflect on and evaluate personal performance, learning and contribution to team and leadership activities, identifying, justifying and planning continuing professional development (CPD) in line with career progression and professional standards.
• Adapt and apply knowledge, skills and professional judgement flexibly and systematically to analyse and address complex, multidisciplinary engineering challenges, demonstrating initiative, resilience and informed decision-making.