top of page

Civil Engineering Pathway

  • Develop knowledge of structural analysis, geotechnics, highways and transport systems, alongside core engineering principles e.g.materials science, fluid mechanics and sustainable design. 

  • Gain technical skills in mathematics, computer-aided design (CAD) and digital construction tools.

Civil Engineering

What makes Francis James different?

Alongside technical skills, the programme covers broader aspects of the construction industry, including project management, supply chains, financial management and compliance with building regulations. Learners gain proficiency in digital tools such as computer-aided design (CAD), Building Information Modelling (BIM), and other software used to optimise building systems.

Throughout the programme, there is a strong emphasis on sustainability, innovation and professional practice. Learners learn to integrate environmentally responsible design methods, evaluate emerging technologies and develop skills in leadership, teamwork and problem-solving.

Level 5

(120 credits - 8 courses)

The Construction Supply Chain

1. The Construction Supply Chain (15 credits)

Learners will gain knowledge of the key components of the construction supply chain e.g.:

  • Skilled labour and plant

  • Materials and specialist subcontractors

  • Procurement and logistics

Learners will develop an understanding of how construction resources are acquired and managed to meet client requirements effectively, considering time, cost and quality throughout the supply chain.

  • Learners will explore how construction supply chain operations can be optimised, addressing challenges such as resource shortages, logistical constraints and market fluctuations. Learners will develop an understanding of resource procurement and effective supplier management, including the importance of collaborative and non-confrontational relationships with suppliers, subcontractors and other stakeholders. They will also examine the importance of trust, communication and mutual benefit in developing resilient supply chain networks and supporting successful project delivery.

Civil Engineering Innovation

2. Economics for Construction and the Built Environment (15 credits)

Learners will understand the key economic concepts relevant to construction e.g.:

  • Microeconomics and macroeconomics

  • Supply and demand

  • Property investment and resale markets

Learners will develop an understanding of the economic forces that influence the construction industry, including their impact on construction activity, investment decisions and project viability.

  • Learners will examine how economic factors influence construction demand and investment decisions, considering market fluctuations, interest rates and government policies. Learners will analyse supply and demand within the construction sector, including its effects on resource availability, pricing and labour markets. They will also evaluate the relationship between economic conditions and project viability, developing an understanding of how wider economic changes can affect construction projects and the built environment.

Civil Engineering techniques

3. Sustainable Construction and Environmental Impacts (15 credits)

Learners will gain knowledge of key principles of sustainable construction and environmental management e.g.:

  • Sustainable development principles

  • Environmental legislation and regulation

  • Environmental Impact Assessments (EIAs)

Learners will develop an understanding of the environmental, social and regulatory factors that influence sustainable construction and the built environment.

  • Learners will examine the key drivers and constraints affecting sustainable development, including regulatory requirements, environmental challenges and social responsibility. They will develop skills in evaluating and producing Environmental Impact Assessments (EIAs), considering their purpose and practical application within construction projects. Learners will also assess innovative and sustainable construction strategies, identifying approaches that align with industry best practice and help reduce the environmental footprint of construction activities.

professional development

4. Personal and Professional Development (15 credits)

Learners will gain knowledge of key principles of personal and professional development e.g.:

  • Personal Development Planning (PDP)

  • Continuing Professional Development (CPD)

  • Communication and collaboration skills

Learners will develop structured personal development plans, setting realistic goals for skill enhancement and career advancement while monitoring progress and adapting their plans as necessary.

  • Learners will recognise the importance of Continuing Professional Development (CPD) in maintaining and enhancing professional skills, staying up to date with industry developments and supporting long-term employability. Learners will explore how CPD activities can be integrated into their career development strategy. They will also develop advanced communication and collaboration skills, including active listening, negotiation, conflict resolution and effective team working, supporting strong professional relationships and workplace success.

Sustainability

5. Geotechnics and Soil Mechanics (15 credits)

Learners will understand the fundamental principles of soil classification and soil mechanics e.g.:

  • Particle size distribution

  • Atterberg limits and soil consistency

  • Foundation and substructure design

Learners will develop an understanding of how soil properties and classifications influence engineering decisions, particularly when assessing ground conditions and designing foundations for construction projects.

  • Learners will develop skills to interpret and analyse borehole logs and soil sample test results, extracting relevant information to assess soil properties and suitability for construction. Learners will also apply engineering calculations to evaluate soil performance under different loading conditions, considering the effect of ground characteristics on foundation design. They will assess soil stability, safety and suitability for construction, ensuring that proposed solutions meet project requirements and relevant industry standards.

Civil Engineering on-site

6. Highways Engineering (15 credits)

Learners will gain knowledge of key principles of highway design and construction e.g.:

  • Pavement design and construction

  • Traffic and topographical analysis

  • Highway route selection

Learners will develop an understanding of the technical and practical considerations involved in highway design, including how traffic data, topographical surveys and stakeholder requirements influence route selection and overall design.

  • Learners will examine the key constraints affecting highway design, including geological conditions, environmental regulations and land use. They will analyse how these constraints influence engineering solutions, including cuttings, embankments, bridges and tunnels. Learners will also evaluate how highway design can minimise environmental disruption and support sustainable infrastructure development, while ensuring that proposed solutions are practical, safe and appropriate for the project.

Civil Engineering calculations

7. Mathematical Methods in Construction Projects (15 credits)

Learners will gain knowledge of mathematical methods used in construction projects e.g.:

  • Algebra, trigonometry and calculus

  • Statistical analysis and probability

  • Mathematical modelling and optimisation

Learners will apply mathematical and statistical techniques to analyse construction data, solve complex problems and support informed decision-making in areas such as cost estimation, project scheduling and resource allocation.

  • Learners will develop skills to create and apply mathematical models to construction projects, including techniques such as linear programming and critical path analysis to optimise the use of materials, labour and time. They will use statistical methods to interpret data and assess project risks, supporting effective planning and decision-making. Learners will also critically evaluate the effectiveness and limitations of mathematical methods, considering assumptions and error margins when applying them to cost control and project scheduling.

Civil Engineering calculation

8. Engineering for Construction: Theory and Practice (15 credits)

Learners will gain knowledge of fundamental engineering principles used in construction e.g.:

  • Load-bearing structures and forces

  • Material strength and performance

  • Structural and building systems

Learners will apply engineering principles to real-world construction problems, including the design of structural components, analysis of forces and optimisation of building systems for safety, performance and efficiency.

  • Learners will develop an understanding of how engineering decisions influence the design and performance of construction projects, applying theoretical principles to practical construction scenarios. They will critically assess the relationship between engineering, safety and environmental sustainability, considering how design decisions affect both project performance and the wider environment. Learners will also examine regulatory, ethical and sustainability requirements in construction engineering.

bottom of page