This module will equip the learner with the essential theoretical scientific concepts of heat transfer and fire dynamics. The objective will be to master the learner 's understanding of fire, its development, spread and impact. The learner will be provided with detailed tools to assist in the practical applications of fire safety to building construction along with the essential theoretical scientific concepts of fire science via the application of relevant practical experiments.

1. Undertake quantitative analyses of compartment and building fires.
2.  Assess the factors influencing enclosure fire development, spread and resulting severity. 
3. Analyse the yields, toxicity and thus the impact of combustion products. 
4. Explain how a fire initiates , develops and impacts on elements within an enclosure. 
5. Appraise qualitatively the limitations of the applied equations. 
6. Evaluate the impact of enclosure characteristics on the resulting fire intensity.
7. Analyse the results from practical fire tests and e valuate qualitatively the limitations of practical fire testing. 

This module outlines the legal framework as well as regulations and standards that govern fire safety engineering in Ireland and internationally. This will allow learners to assess compliance with relevant legislation, building code requirements and standards in various engineering projects.

It also examines the professional and ethical responsibilities of fire safety engineers, including compliance and decision-making. Through case studies and practical examples, learners will develop the skills to navigate complex legal and ethical issues in fire safety engineering.

1. Demonstrate a comprehensive understanding and application of the key legal principles, regulations, and standards governing fire safety engineering.
2. Critically analy s e legal information, including statutes, regulations, codes, and case law, relevant to fire safety and building regulations.
3. Assess and evaluate compliance with fire safety legislation, building code requirements, and standards in various engineering projects and scenarios.
4. Recogni s e and articulate the professional responsibilities and ethical obligations of fire safety engineers, including duties to clients, the public, and the profession.
5. Explain and a pply ethical principles to real-world situations in fire safety engineering, articulating how informed and principled decisions that prioriti s e public safety and professional integrity can be made.
6. Conduct detailed evaluation of case studies involving legal and ethical challenges in fire safety engineering, proposing solutions that demonstrate sound legal reasoning and ethical judgment.

The aim of the module is to provide students with a thorough knowledge of prescriptive fire safety guidance applicable in the Republic of Ireland vis-à-vis achievement of compliance with the Part B functional requirements of the Second Schedule to the Building Regulations as amended, and to apply this practical knowledge, skills and competencies gained to a design project, where students develop a fire safety strategy for a medium to large sized complex building from architectural planning drawings.

1. Interpret and evaluate the functional requirements of Part B1 B5 of the Second Schedule of the Building Regulations related to prescriptive fire safety design.
2. Analyse and synthesise problems and processes associated with various aspects of the applications of prescriptive fire safety regulations.
3. Prepare a structured fire safety strategy report and associated annotated fire safety drawings which appropriately enumerate the design strategy developed.
4. Communicate effectively to engineering and non-engineering professionals.
5. Develop the facility for independent learning and critical enquiry.

The module aims to develop the students knowledge, understanding and application of the key parameters associated with the appraisal, selection and design of selected active fire safety systems employed in the development of fire strategies for modern medium to large scale building projects

1. Quantitatively assess the need for active fire safety systems in buildings based on the requirements of the Building Regulations and associated codes of practice for a particular building project.
2. Analyse system design and performance requirements for active fire safety systems to satisfy fire safety objectives for prescriptive or performance-based approach es to fire safety design of modern and complex buildings.
3. Develop system design solutions and specifications for active fire safety systems in cluding fire detection and alarms, emergency lighting, smoke and heat exhaust ventilation systems, pressurisation system, and automatic suppression systems.
4. Develop pe rformance management policies and procedures for life cycle performance of active fire safety systems.

This module delivers the fundamentals of Human behaviour , fire , evacuation and risk modelling, It reviews and analyses the assumptions and principles that underpin Human behaviour in fire with particular emphasis on socio-psychological factors that affect decision making in fire emergencies, recognition and response to fire cues. The module analyses the current capability to integrate human behaviour , risk and modelling into effective fire engineering design .

1. Examine and assess the factors which influence human behaviour in fire .
2. Appraise behavioural assumptions and limitations of existing prescriptive fire regulations in relation to life safety design.
3. Assess current knowledge with respect to its implementation in fire performance design .
4. Evaluate the underlying principles, basic features and applicability of the approaches to modelling.
5. Examine the limitations of the various approaches to fire, risk & evacuation modelling.
6. Deploy a range of analytical skills to assess data on fire risk and model relevant risks using the methods of Reliability Theory and the important Python frameworks of NumPy, Pandas, SymPy , and Matplotlib
7. Develop and implement MonteCarlo simulations models relevant to fire engineering such as egress time using the NumPy and SciPy frameworks in Python.

This Construction Financial Management module is designed to enable learners to develop /enhance their understanding and to make co nstructive contributions to the effective financial management of a business enterprise within the construction industry. In doing so, they will enhance/ develop a sound working knowledge of the various concepts, principles and techniques from the disciplines of financial management they apply to the construction industry.

1. Evaluate the context in which investment and financing decisions are typically made within construction related industries and examine economic factors, such as taxation, availability of finance , risk reward and interest rates etc which influence these decisions.
2. Appraise and critical evaluation of the major financial reports in accordance with good accounting practice, including performance evaluation. Assessing issues such as gearing, debt management, shareholder wealth etc as means of assessing the performance of units across a construction related business.
3. Appraise capital projects including a review of construction related investment proposals, assess factors to be considered and issues to be resolved.
4. Appraise capital asset replacements decisions/options within the constructions industry and associated finance options.
5. Assess the operational cost environment using Financial Management principles to ensure the most efficient use of available resources.

This module aims to provide students with the knowledge and skills to apply elemental performance-based fire safety engineering techniqu es to the analysis of buildings and structural design based on the application of scientific and engineering principles .

1. Integrate information and data from a variety of sources and interpret and evaluate data related to performance-based fire safety and structural fire engineering design.
2. Appraise and apply appropriate scientific based techniques for analysing the performance of building and structural element s in fire.
3. Assess the behaviour and properties (mechanical and thermal properties) , of building and structural materials (steel, concrete, timber, masonry , gypsum ) at elevated temperatures including the effect of temperature on the of such materials and their influence in compartment and structural fire engineering design.
4. Estimate key fire engineering parameters associated with compartment fire growth and development, fire and smoke spread and occupant evacuation, as part of an ASET and RSET calculations.
5. Assess the factors determining the success of a fire safety engineering design solution .

This module aims to provide students with comprehensive knowledge and understanding of fire safety practices in the construction industry. It covers the principles, regulations, and survey and risk assessment techniques essential for ensuring fire safety in building design, construction, and maintenance. Students will learn about the importance of fire-resistant materials, fire prevention systems, and the role of building codes and standards in promoting fire safety whilst also covering the financial aspects of implementing such fire safety measures on construction projects.

1. Interpret and comply with relevant fire safety regulations and building codes.
2. Identify and evaluate fire hazards and risks in various construction scenarios.
3. Conduct detailed site surveys and risk assessments with a focus on fire safety.
4. Select and implement appropriate fire-resistant materials and fire prevention systems and understand the costs associated with such fire safety measures.
5. Understand the product submittal and on-site installation and benchmarking processes required for compliance and sign off under the Building Control Amendment Regulations Part B.