Earthquake Engineering Syllabus

The syllabus develops advanced understanding of ground motion, structural response, soil behaviour, seismic design, vulnerability and risk. Subject order differs, but the following structure is representative.

Indicative semester-wise syllabus

Engineering Mathematics

Mathematics supports structural analysis, fluid flow, soil mechanics, surveying and statistics. Students study calculus, differential equations, matrices, probability and numerical methods.

Engineering Mechanics

Mechanics examines forces, moments, equilibrium, friction and motion. It provides the foundation for structural and geotechnical subjects.

Engineering Drawing

Drawing teaches plans, elevations, sections and graphical communication. CAD later extends this into digital drafting and modelling.

Engineering Geology

Geology covers rocks, minerals, geological structures, groundwater and site conditions. It supports foundation, tunnel, dam and slope decisions.

Surveying

Surveying subjects cover levelling, traversing, contouring, curves, total stations, GNSS and mapping. Field practice develops accuracy and teamwork.

Geomatics

Geomatics integrates surveying, GIS, remote sensing and spatial data. It supports urban planning, transport, water and asset management.

Strength of Materials

Students study stress, strain, bending, shear, torsion, deflection and column behaviour. These concepts explain how structural elements respond to loads.

Structural Analysis

Structural Analysis calculates reactions, forces and displacements in beams, frames, trusses and indeterminate systems. Matrix and computer methods are introduced.

Reinforced Concrete Design

Concrete resists compression well, while steel reinforcement supports tension. Students design slabs, beams, columns, foundations and staircases under code provisions.

They also learn detailing because incorrect reinforcement placement can undermine a sound calculation.

Steel Structure Design

Students design tension and compression members, beams, columns, trusses and connections. Stability, buckling, fabrication and corrosion are important.

Masonry Structures

Masonry courses examine brick, block and stone walls and their structural behaviour. Earthquake-resistant detailing is especially relevant.

Earthquake Engineering

Students learn seismic ground motion, structural response, ductility and earthquake-resistant design. Good configuration and detailing often matter as much as numerical strength.

Prestressed Concrete

Prestressing introduces compression to control cracking and improve span capacity. It is used in bridges, buildings and precast systems.

Bridge Engineering

Bridge courses cover loads, systems, bearings, decks, substructures, construction and inspection. Advanced design is commonly pursued at postgraduate level.

Concrete Technology

Students study cement, aggregates, water, admixtures, mix design, fresh concrete, hardened properties and durability. Laboratory work includes slump and strength tests.

Construction Materials

Materials courses cover cement, concrete, steel, masonry, timber, bitumen, glass and modern composites. Selection balances performance, cost and environmental impact.

Building Construction

Students learn foundations, walls, floors, roofs, doors, finishes, waterproofing and building services coordination. Drawings connect design with site work.

Soil Mechanics

Soil Mechanics covers classification, permeability, compaction, consolidation, shear strength and stress distribution. Laboratory results support foundation decisions.

Foundation Engineering

Students design shallow and deep foundations and examine settlement and bearing capacity. Piles, rafts and ground improvement may be included.

Rock Mechanics

Rock Mechanics supports tunnels, slopes, mines and dam foundations. Students study discontinuities, strength and classification.

Ground Improvement

Weak soils can be improved through compaction, drainage, reinforcement, grouting and other methods. Selection depends on soil, project and cost.

Engineering seismology

Engineering Seismology covers faults, earthquake magnitude and intensity, wave propagation, records and source characteristics. It connects earth processes with engineering ground motion.

Ground-motion characteristics

Students examine acceleration, velocity, displacement, duration, frequency content and record processing. They learn why a single peak value cannot describe every damaging feature.

Seismic hazard analysis

Hazard analysis studies earthquake sources, recurrence, attenuation and uncertainty. Deterministic and probabilistic approaches support design ground motions and maps.

Response-spectrum analysis

Response spectra show the maximum response of idealised oscillators across periods and damping. Students use modal combination carefully and understand its assumptions.

Time-history analysis

Time-history analysis calculates response through a ground-motion record. Record selection, scaling, timestep, damping, nonlinear behaviour and interpretation require specialist judgement.

Seismic design of reinforced concrete

Students study ductile frames, walls, confinement, anchorage, beam-column joints, strong-column concepts and capacity design under applicable codes.

Seismic design of steel structures

Topics include moment frames, braced frames, connection behaviour, local and global buckling, energy dissipation and ductile failure mechanisms.

Masonry and non-engineered construction

Students examine wall integrity, diaphragms, bands, connections, out-of-plane failure and practical strengthening. This area matters because vulnerable masonry forms a large part of the building stock.

Seismic isolation and energy dissipation

Advanced subjects introduce base isolation, dampers and control systems. Students examine performance objectives, displacement demand, testing and maintenance rather than treating devices as universal solutions.

Soil dynamics

Soil Dynamics covers cyclic loading, dynamic properties, damping, wave propagation and laboratory or field measurement of site characteristics.

Liquefaction assessment

Students evaluate triggering, consequences and mitigation using investigation data and accepted procedures. Uncertainty in soil profile and groundwater must be recognised.

Soil-structure interaction

Soil-structure interaction examines how foundation flexibility and ground response affect structural demand. Simplified and numerical models must match the decision being made.

Seismic design of bridges

Topics include bearings, restrainers, piers, foundations, joints, unseating, irregularity and soil effects. Maintaining emergency connectivity can shape performance objectives.

Performance-based earthquake engineering

Performance-based methods connect shaking with structural response, damage and consequences. Students define objectives such as operational use, life safety or collapse prevention.

Seismic vulnerability assessment

Assessment combines records, inspection, material information and analysis to identify likely weaknesses. Rapid screening and detailed evaluation have different confidence levels.

Retrofitting and rehabilitation

Students examine jacketing, walls, braces, connections, diaphragms, foundation measures and material repair. Intervention should address the governing weakness without creating a new irregularity.

Seismic risk and loss estimation

Risk subjects integrate hazard, exposure and vulnerability. Fragility, consequence and uncertainty support portfolio studies and investment priorities.

Structural health monitoring

Monitoring covers sensors, data acquisition, modal identification, signal processing and condition assessment. Environmental and operational variation can resemble damage and must be separated cautiously.

Post-earthquake assessment

Students learn rapid safety evaluation, documentation, tagging principles and aftershock awareness. Actual deployment requires authorised protocols, training and personal safety.

Seismic codes and professional practice

Students examine code philosophy, design spectra, load combinations, detailing and limitations. Codes establish minimum rules; unusual or critical structures require additional judgement and review.

Computer-aided design

Students use CAD and analysis software for drawings and design. They must verify units, geometry, loads and assumptions.

Finite Element Method

Finite Element Method divides complex systems into smaller elements for analysis. It is introduced in advanced UG or PG structural courses.

Remote sensing and GIS

Spatial technologies support mapping, land-use analysis, flood studies, transport and utilities. Data quality and coordinate systems matter.

Sustainable construction

Students study low-carbon materials, energy, water, waste, durability and life-cycle assessment. Sustainable design should meet safety and performance requirements.

Repair and rehabilitation

Existing structures require inspection, diagnosis, repair and strengthening. Engineers identify causes before selecting treatment.

Laboratories

Typical laboratories include materials, concrete, geotechnical, fluid mechanics, environmental, highway and surveying. Practical work develops measurement and reporting.

Internship

Internships may involve construction sites, consulting offices, laboratories, government departments or surveys. Students should seek defined tasks and supervision.

Final-year project

Projects can address structural modelling, concrete materials, soil, traffic, water, environment, GIS, planning or sustainability. Data and scope should be realistic.