Architectural Engineering MEng

This module provides students with an introduction to projects within the built environment, the roles of professional engineers, the professions they will interact with, and the skills required by a professional engineer operating in the built environment 

History of architecture survey course.

The module is an introduction to the principles of net zero carbon design.
It aims to give students an understanding of the role of a building as a modifier of climate with reference to traditional climatically responsive architecture, and the role of buildings in the context of global energy usage, environmental impact, climate change and net zero carbon design.

The Geotechnical Engineer is responsible for the safe design of how a building or infrastructure asset interacts with the ground. This module introduces students to the role of the Geotechnical Engineer and the fundamental principles and concepts that form the basis of soil mechanics​

​The world is changing faster than at any time since the first industrial revolution.  You will be introduced to the Built Environment as it exists now and how Digital processes and technology will affect the project lifecycle; feasibility, design, construction, operation and demolition/adaptation.​

MATH198 is a Year 1 mathematics module for students of programmes taught in the School of Engineering, e.g. Aerospace, Civil, Mechanical or Industrial Design Engineering. It is designed to reinforce and build upon A-level mathematics, providing you with the strong background required in your engineering studies and preparing you for the Year 2 mathematics module MATH299 (Mathematics engineering II). In the first semester, the foundations are laid: differential calculus, vector algebra, integration and applications. Semester two covers complex numbers, differential equations, Laplace transformations and functions of two variables

Within the natural world, the skeleton of an animal and its form and function are intrensically linked. The structure of a building is its skeleton. The Structural Engineer is responsible for the design of the skeleton of a building or infrastructure asset, and so has the ability to directly impact its form, function, efficiency and effectiveness. This module provides students with an introduction to structural engineering, the typical materials a structural engineer will use to design with and the way structures are constructed to ensure buildings and infrastructure assets are safe, resiliant, sustainable, economical and buildable

Architectural History and Theory module on the Twentieth Century

To introduce some advanced Mathematics required by Engineers, Aerospace Engineers, Civil Engineers and Mechanical Engineers. To assist students in acquiring the skills necessary to use the mathematics developed in the module.

​This module introduces students to energy and environmental issues, particularly those that must be faced by the discipline of architecture.    The aim of this module is to provide an introduction to design of passive environmental systems for buildings, their integration into building fabric and structural systems, and selection of appropriate equipment and materials. Both the fundamentals and presentations of case studies (including lessons from the vernacular) will be used to enhance the understanding environmental simulation.​ The module will be delivered by weekly 2-hour lectures, and assessed by  There are two mandatory components to the assessment: 1)       Group Report on Vernacular Architecture (30% of total mark) 2)       One-hour examination on all topics covered in the lecture series (70% of total mark).​

For XJTLU Students Only Maxwell’s equations elegantly describe the physical laws governing such things as electrodynamics. Related problems may be posed in terms of vector calculus, or in terms of differential equations. In this module, we revise vector calculus and field theory in three dimensions, using Stokes’ theorem and Gauss’ theorem to solve explicit physical problems; we evaluate path, surface and volume integrals, and derive general electrodynamic laws. We also consider both the ordinary and partial differential equations arising from real world problems related to Maxwell’s equations, and introduce some advanced methods for solving these (i.e. Fourier series, Fourier transforms, Laplace transforms), and further methods for approximating solutions (central difference methods in one and two dimensions).

This module introduces students to the theoretical framework of geotechnical engineering. It emphasizes soil as a material and provides an introduction to the application of the theory to practical geotechnical engineering problems including bearing capacity of foundations, earth pressures on retaining walls and slope stability. ​

The students are provided with a realistic design brief that needs to be met over the course of the semester. This is achieved via a defined set of realistic work stages which enables the students to produce an open-ended structural design within a group working environment, thus promoting teamwork and industrial awareness. The final deliverable will be the submission of structured design portfolio/sketchbook and oral presentation to academic members of staff and relevant industry partners.

This module introduces students to the structural design concepts and applications of structural steelwork and reinforced concrete.  The basic principles are covered and design examples for design to the relevant sections of the Eurocodes are given.

This module builds on the first year with further exploration into topics introduced in "Structural Engineering in the Built Environment 1". Students are introduced to advanced and emerging materials used in Civil and Architectural Engineering, deeper theoretic and applied understanding of structural behaviour and systems and continue to develop their knowledge and understanding of industry standard structural design tools. All within the context of ensuring structures are constructed to ensure buildings and infrastructure assets are safe, resilient, sustainable, economical and buildable

This module will provide subject-specific content, by focusing on modern aspects of construction management, and on tools and approaches applied in built environment projects. New techniques, such as BIM, lean construction and sustainability will also be analysed from a ‘business opportunity’ perspective, and with direct applications to civil engineering practice.

The module uses lectures from staff to introduce specialised research themes and topics in architectural history and theory, and is supported by group and individual research. Students are able to choose topics for which they would like to attend further group tutorials / seminars. The module is assessed by an MCQ exam (50%) and a 2,000-word essay (50%).

The aim of the course is to develop from user requirements an introduction to design of environmental systems for large buildings, selection of appropriate equipment and materials, and their integration into building fabric and structural systems. The three topics are Artificial Lighting, Acoustics, and Thermal Environment and are delivered by a mixture of lectures and case studies.

This module introduces students to the theory and methods that underpin geotechnical engineering practice. It covers the design of shallow and deep foundations, retaining walls, slopes and other structures according to Eurocode 7. In addition, it provides a comprehensive introduction to modern finite element methods and their application to geotechnical engineering.​  

The Year 3 individual research project; 300 hours student work over 2 semesters; 3 assessment stages (proposal 5%, interim 20%, final 75%).

This module introduces essential principles necessary for the understanding of vibrations in Civil Engineering structures.

​This module develops a student’s ability with regard to structural engineering design in three typical construction materials; steelwork, timber and masonry.  The students will learn the underlying theory and practical application of structural engineering design in these materials.  The module will also introduce the relevant UK codes of practise in these materials (Eurocode 3,5 and 6)​

This module introduces students to plastic structural analysis. At the member level the principle and method for assessing the load carrying capacity of a section is discussed. Topics covered at the structural level include principle and method behind collapse mechanisms, determining collapse loads by incrementally increasing load magnitude (incremental load analysis), and by investigation of the final incipient collapse state (plastic limit state analysis). Implications on limit state design are also discussed.

​This module introduces students to advanced theories, concepts and methods of modern geomechanics. These include particle dynamics simulations, plasticity theory, limit analysis, constitutive modelling of soft and hard soils, and finite element analysis.  ​

This module presents an opportunity to practise comprehensive, multidisciplinary design in civil engineering. The students work in teams to provide complete solutions to demanding civil engineering design problems with some significant reliance on self, guided learning.

​This module is to cover design of steelwork, timber and masonry based on Eurocodes 3, 5 and 6. There will be 6 paralell lectures (2-hour slot) devlivered in those subject areas, respectively. In addition there will be three corresponding coursework items to help students undertake design practice. In completion of this module, students should be capable of analysing and designing structures in all three materials. Assessments will include a writen examination (85%) and three coursework items: Steelwork (5%), Timber (5%) and Masonry (5%).

This module focuses on the conceptual design of civil engineering structures, and structural behaviour and assessment. It provides a review of the basics of structural engineering analysis and design including construction of bending moment and shear force diagrams, cross-sectional analysis, material properties and basic design code requirements.

The module aims to provide students with a critical and systematic understanding of the theoretical, practical and technological aspects of Building Information Modelling as a tool, as a process, and as a managerial method. Through a combination of formal lectures, presentations and seminars managed by academic staff and leading practitioners from the AEC industry, students will be able to scrutinise the multi-faceted impact of BIM on the whole project life-cycle based on a thorough understanding of the limitations of traditional project delivery and the several challenges that may restrict full BIM adoption in practice. The module will introduce students to the various concepts and technologies that underpin BIM practice such as nD modelling and maturity levels, common data environment and clouds, data exchange and design coordination, clash detection and model checking, and interoperability and Industry Foundation Classes (IFCs). Students will also get familiar with the national and international BIM standards and will be able to observe the growth of BIM adoption in the UK and worldwide. Furthermore, the module will present BIM as enabling tool/method to support building sustainability and will introduce students to different concepts that are shaping the wider context of BIM and its future potentials such as parametric modelling, digital design, big data and smart cities. The module will be complemented with case studies to show examples of successful BIM implementation within real building projects. The module will introduce students to the case study research, allowing students to investigate the applications of BIM within a real-life project while enhancing their academic writing and research skills.