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M.Tech. Civil Engineering with Specialization in Structural Engineering

program-details

School of Engineering and Technology, CT University offers a 2-year Master of Technology in Civil Engineering with specialization in Structural Engineering. The programme provides a strong foundation in core civil engineering along with advanced knowledge of structural analysis and design, reinforced concrete structures, steel structures, structural dynamics, earthquake engineering and advanced structural systems. The curriculum combines theoretical concepts with practical training in structural analysis and design software, enabling students to analyse, design and evaluate complex structures and become industry-ready professionals. The programme also provides opportunities for professional training and industry-oriented certification.

Industry Immersion

The programme provides industry exposure through practical learning and application of structural engineering principles in real-world projects. Students gain experience in structural analysis and design of buildings, bridges and other infrastructure, structural detailing, seismic assessment, structural inspection and evaluation. Industry interaction and practical training help students develop skills in structural modelling, analysis, design and the use of relevant structural engineering software. The programme also encourages participation in consultancy projects, research activities, professional development and advanced studies in structural engineering.

eligibility criteria

B.E./B.Tech. (Civil Engineering) from a recognized university with at least 50% marks.

Duration

2 Years

related program

Curriculum

1ST SEMESTER SUBJECTS

This course provides advanced knowledge of structural dynamics, vibration analysis, modal analysis, and numerical methods for assessing and designing structures.
Course Outcome:
CO1: Understand the basic concepts of structural dynamics, vibration analysis, exciting forces, and mathematical modelling of dynamic systems.
CO2: Analyze the behavior of single degree of freedom systems under free and forced vibration with and without damping.
CO3: Apply numerical methods such as Newmark Method, Wilson Method, and direct integration techniques for dynamic response analysis.
CO4: Evaluate the dynamic behavior of multiple degree of freedom systems and determine natural frequencies and mode shapes.
CO5: Analyze the vibration behavior of distributed mass systems such as beams under free and forced vibration.
CO6: Examine the earthquake response of multi-degree of freedom systems using modal mass and participation factor concepts.

This course develops research skills in research formulation, literature review, research design, data collection and analysis, statistical methods, modelling, simulation, thesis writing, technical publications.
Course Outcome:
CO1: Understand different types of research and research methodology concepts.
CO2: Apply research methods, scientific approaches, and literature review techniques for defining research problems.
CO3: Design research methodology and perform data collection, processing, and statistical analysis.
CO4: Apply sampling methods and hypothesis testing techniques for research data interpretation.
CO5: Develop and apply research models, simulation techniques, and analytical approaches for research studies.
CO6: Prepare research reports, thesis documents, journal publications, and technical presentations using standard research practices.

This course provides advanced knowledge of matrix-based analysis of indeterminate structures with emphasis on computational analysis and structural behavior.
Course Outcome:
CO1: Understand the concepts of static and kinematic indeterminacy, virtual work, and force-displacement relationships in structural systems.
CO2: Apply matrix methods and fundamental structural analysis principles for indeterminate structures.
CO3: Analyze beams and plane trusses using the flexibility method for structural analysis problems.
CO4: Apply the stiffness method for analysis of beams, plane frames, and plane trusses.
CO5: Analyze space trusses, space frames, and grids using stiffness-based computational methods.
CO6: Evaluate substructure analysis techniques and their applications in structural engineering problems.

This laboratory course develops practical skills in computer-aided drafting, structural design, and analysis software for preparing drawings, designing structural members, and analyzing trusses and multistoreyed frames.
Course Outcome:
CO1: Create accurate two-dimensional engineering drawings using CAD software.
CO2: Develop three-dimensional structural models using CAD software tools.
CO3: Design reinforced concrete slabs using Excel-based design programs.
CO4: Design reinforced concrete beams using spreadsheet-based structural design methods.
CO5: Design columns and footings using Excel-based structural design procedures.
CO6: Apply spreadsheet tools for structural footing design calculations.
CO7: Analyse truss structures using STAAD Pro and interpret structural analysis results.
CO8: Model and analyse multi-storeyed space frame structures using STAAD Pro software.
Elective Subjects

This course develops advanced understanding of stress, strain, elasticity, and plasticity for analyzing structural response under complex loading conditions.
Course Outcome:
CO1: Analyze plane stress and plane strain problems using equilibrium and compatibility equations.
CO2: Evaluate stress distribution in structural elements subjected to concentrated loading conditions.
CO3: Analyze three-dimensional stress and strain conditions including principal stresses and shear stresses.
CO4: Apply torsion theories for non-circular, hollow, and thin-walled structural sections.
CO5: Understand the concepts of plasticity, yield criteria, and plastic flow behavior in structural materials.
CO6: Apply energy theorems and virtual work principles for elasticity and structural analysis problems.

This course covers advanced pavement performance, structural analysis, material characterization, traffic loading, pavement stresses, and flexible and rigid pavement design.
Course Outcome:
CO1: Understand the types, functions, failures, and performance criteria of pavement systems.
CO2: Analyze stresses and structural behavior of flexible and rigid pavements using theoretical and analytical models.
CO3: Evaluate traffic characteristics, axle loads, and design traffic parameters for pavement design.
CO4: Identify and characterize pavement materials and their properties for pavement analysis and design.
CO5: Design flexible pavements using IRC, AASHTO, and other standard pavement design methods.
CO6: Design rigid pavements using IRC, AASHTO, PCA, and other standard concrete pavement design approaches.

This course provides knowledge of rock mechanics, rock mass behavior, in-situ stresses, tunnelling, slope stability, and foundations on rock for safe and stable geotechnical design.
Course Outcome:
CO1: Understand the classification and engineering behavior of intact and fissured rock masses.
CO2: Evaluate the engineering properties of rocks through laboratory and field investigations.
CO3: Analyze in-situ rock stresses and deformation around underground openings and tunnels.
CO4: Apply tunneling methods, excavation techniques, and stabilization measures in underground construction.
CO5: Analyze the stability of rock slopes and tunnel supports using limit equilibrium and empirical methods.
CO6: Evaluate the behavior and design principles of foundations resting on rock masses.

This course focuses on structural assessment, damage diagnosis, repair, rehabilitation, retrofitting, and strengthening techniques for RC, steel, and FRP structures.
Course Outcome:
CO1: Understand the causes of structural deterioration, cracking, and maintenance requirements of reinforced concrete and masonry structures.
CO2: Select suitable repair materials and protective systems for structural rehabilitation applications.
CO3: Assess structural damage using visual inspection, non-destructive testing, and condition evaluation techniques.
CO4: Apply crack repair and corrosion control methods for restoration of damaged structural elements.
CO5: Evaluate and implement jacketing techniques for rehabilitation of reinforced concrete structures.
CO6: Apply strengthening techniques for improving shear and flexural performance of structural members.

This course provides advanced knowledge of earth pressure theories and the analysis and design of retaining structures and safe performance under varied soil and loading conditions.
Course Outcome:
CO1: Apply classical earth pressure theories to determine active, passive, and at-rest earth pressures for different soil conditions.
CO2: Analyze the effects of soil tension, structural flexibility, and earthquake loading on lateral earth pressures.
CO3: Understand the behavior and applications of different types of retaining walls and soil retaining systems.
CO4: Apply structural and geotechnical design principles for retaining walls, abutments, and wing walls considering stability and bearing capacity.
CO5: Design bulkheads, anchored retaining systems, and modern retaining walls under cohesive and cohesionless soil conditions.
CO6: Apply soil reinforcement concepts and design principles for reinforced earth retaining wall systems.

This course focuses on advanced soil exploration, in-situ testing, and foundation analysis for geotechnical engineering applications.
Course Outcome:
CO1: Understand geotechnical exploration methods, soil sampling techniques, and field testing procedures used in soil investigation.
CO2: Interpret and process soil exploration data for evaluating soil deformation and engineering properties.
CO3: Analyze the bearing capacity and performance of shallow foundations using in-situ testing methods.
CO4: Evaluate settlement characteristics of foundations on cohesive and cohesionless soils.
CO5: Analyze the behavior and design of deep foundations including pile foundations and pile groups.

2ND SEMESTER SUBJECTS

This course provides advanced knowledge of the analysis and design of reinforced concrete members emphasizing flexure, shear, torsion, serviceability, structural safety, and code-based detailing.
Course Outcome:
CO1: Apply design principles of reinforced concrete beams for flexure, shear, torsion, and serviceability requirements.
CO2: Analyze statically indeterminate reinforced concrete structures using limit analysis and yield line theory concepts.
CO3: Design ribbed slabs and flat slabs considering moment resistance, shear, deflection, and reinforcement detailing.
CO4: Apply direct design and equivalent frame methods for analysis and design of flat slab systems.
CO5: Design reinforced concrete compression members under axial, uniaxial, biaxial, and slender column loading conditions.
CO6: Design reinforced concrete walls subjected to vertical and concentrated loads with appropriate reinforcement detailing.

This course provides advanced knowledge of the analysis and design of prestressed concrete structures, emphasizing prestressing systems, losses, structural behavior, serviceability, durability, and efficient design.
Course Outcome:
CO1: Understand the fundamentals, methods, systems, and losses associated with prestressed concrete structures.
CO2: Analyze and design prestressed concrete sections for flexure, shear, torsion, bond, and anchorage requirements.
CO3: Evaluate stress distribution, end block behavior, and deflection characteristics of prestressed concrete members.
CO4: Apply prestressing concepts for tension members, circular prestressing, and statically indeterminate prestressed structures.
CO5: Design prestressed concrete slabs, axial members, and grid floor systems using codal provisions.
CO6: Analyze and design composite and partially prestressed concrete structural systems considering creep and shrinkage effects.

This course covers operations research techniques for optimization and decision-making network models, CPM, PERT, inventory, scheduling, queuing, game theory, and simulation.
Course Outcome:
CO1: Formulate and solve linear programming problems using graphical and simplex methods.
CO2: Apply advanced linear programming techniques such as duality, dual simplex, sensitivity analysis, and parametric programming.
CO3: Analyze and solve network optimization and project management problems using CPM, PERT, and flow network models.
CO4: Apply nonlinear, geometric, and dynamic programming techniques to optimization problems.
CO5: Evaluate inventory, scheduling, and sequencing models for effective resource management.
CO6: Analyze queuing systems, game theory models, and simulation techniques for decision-making under uncertainty.

This course provides an opportunity to apply advanced civil engineering knowledge to a real-world research, design, analysis, or technical problem.
Course Outcome:
CO1: Identify a civil engineering problem and define clear objectives, methodology, and expected outcomes.
CO2: Conduct thorough literature review and technical analysis relevant to the selected project topic.
CO3: Apply theoretical concepts and modern tools/software in project design and analysis.
CO4: Design appropriate solutions while considering safety, sustainability, and environmental aspects.
CO5: Prepare and present a well-structured project report and technical presentation.
Elective Subjects

This course focuses on soil–foundation interaction, covering foundation models, beams and plates on elastic foundations, pile and pile-group behavior, pile–raft systems, and dynamic soil–foundation response.
Course Outcome:
CO1: Understand the fundamentals, behavior, and significance of soil–foundation interaction systems.
CO2: Analyze beams resting on elastic foundations using different soil response models and analytical approaches.
CO3: Evaluate the behavior of plates resting on elastic media using classical and numerical methods.
CO4: Perform elastic analysis of single piles under vertical and lateral loading conditions.
CO5: Analyze pile group behavior and load distribution in pile foundation systems.
CO6: Apply interaction analysis concepts for pile-raft systems and dynamic soil–foundation interaction problems.

This course provides advanced knowledge of innovative and sustainable construction materials, focusing on high-performance concrete, fibre-reinforced concrete, FRP for enhanced structural performance and durability.
Course Outcome:
CO1: Understand the properties and effects of supplementary cementing materials and polymer concretes on concrete performance.
CO2: Analyze the behavior of fiber reinforced concrete and FRP materials under different loading conditions.
CO3: Evaluate the strength, durability, and performance characteristics of HVFA and high-performance concrete.
CO4: Apply the concepts of polymer concrete composites and self-compacting concrete for structural applications.
CO5: Assess the influence of waste materials and industrial by-products on concrete properties and environmental safety.
CO6: Recommend sustainable and innovative construction materials based on performance, durability, and environmental considerations.

This course provides advanced knowledge of the analysis, design, construction, and maintenance of bridge structures.
Course Outcome:
CO1: Understand bridge types, loading conditions, design requirements, and forces acting on bridge structures.
CO2: Evaluate economic feasibility, site investigation requirements, and scour effects in bridge engineering projects.
CO3: Analyze and design solid slab bridges using standard methods and code provisions.
CO4: Apply Courbon’s theory and grillage analogy methods for analysis and design of girder bridges.
CO5: Apply prestressed concrete principles in the analysis and design of bridge structures and composite sections.
CO6: Classify and design bridge foundations, piers, abutments, and approach structures for bridge systems.

This course provides advanced knowledge of the Finite Element Method for modelling and analyzing complex structural and solid mechanics problems.
Course Outcome:
CO1: Understand the fundamental concepts, principles, and approximation methods used in finite element analysis.
CO2: Apply elasticity principles and stress-strain relationships for plane stress, plane strain, and axisymmetric problems.
CO3: Develop stiffness matrices, shape functions, and displacement models for finite element formulations.
CO4: Apply isoparametric formulations and finite element modeling techniques for two-dimensional and axisymmetric analysis.
CO5: Analyze engineering problems using non-linear finite element analysis methods.
CO6: Perform finite element analysis of trusses, frames, plane stress, plane strain, plates, and shell structures.

This course provides fundamental knowledge of earthquake engineering and seismic design of earthquake-resistant RC and masonry structures, and safe, ductile structural design.
Course Outcome:
CO1: Understand the fundamentals of engineering seismology, earthquake phenomena, and seismic ground motions.
CO2: Analyze structural behavior and conceptual planning considerations for earthquake-resistant structures.
CO3: Apply seismic design methods and codal provisions for earthquake-resistant structural analysis and design.
CO4: Design reinforced concrete buildings considering seismic loads, structural irregularities, and lateral load resisting systems.
CO5: Evaluate the behavior and design of structural walls and non-structural elements under earthquake loading conditions.
CO6: Apply earthquake-resistant design principles for masonry buildings considering seismic behavior and codal requirements.

This course provides an understanding of the principles, materials, systems, and construction techniques used in prefabricated and precast structures.
Course Outcome:
CO1: Explain the concepts, principles, advantages, limitations, and construction processes involved in prefabricated building systems.
CO2: Analyze the behavior and applications of prefabricated structural components such as slabs, wall panels, shear walls, beams, and columns.
CO3: Evaluate different prefabricated structural systems including skeletal, portal frame, large panel, and block systems for various construction requirements.
CO4: Apply design principles for prefabricated structures considering material efficiency, joint flexibility, transportation, stacking, and erection requirements.
CO5: Design and assess joints and structural connections in prefabricated structures based on force transfer mechanisms and functional requirements.
CO6: Analyze the effects of abnormal loads such as earthquakes, cyclones, and progressive collapse on prefabricated structures and apply relevant codal provisions for safe design.

3RD SEMESTER SUBJECTS

This course provides advanced understanding of stress, strain, elasticity, tensor analysis, torsion, fracture mechanics, and structural stability.
Course Outcome:
CO1: Understand the fundamental concepts of displacement, strain, stress fields, constitutive relations, and tensor analysis in elasticity.
CO2: Analyze stress and strain conditions, principal stresses and strains, and equilibrium relationships in solid mechanics.
CO3: Formulate and solve elasticity problems using stress–strain relations, compatibility equations, and boundary conditions.
CO4: Apply analytical methods for solving two-dimensional elasticity problems in Cartesian and polar coordinates.
CO5: Analyze torsion in prismatic bars using Saint Venant’s theory and membrane analogy concepts.
CO6: Understand the fundamentals of fracture mechanics, stress concentration, crack propagation, and structural stability behavior.

This course provides advanced knowledge of foundation analysis and design, settlement, and ground improvement for safe and efficient foundation systems.
Course Outcome:
CO1: Analyze bearing capacity and settlement behavior of shallow foundations using theoretical and codal approaches.
CO2: Design pile foundations subjected to vertical, lateral, eccentric, and uplift loading conditions.
CO3: Evaluate the behavior, efficiency, and settlement characteristics of pile groups and pile cap systems.
CO4: Understand the design principles, behavior, and construction techniques of well foundations.
CO5: Apply machine foundation analysis and advanced foundation engineering techniques for structural applications.
CO6: Evaluate and apply ground improvement, soil stabilization, and geosynthetic reinforcement methods in foundation engineering.

This course provides advanced knowledge of analytical and numerical methods for solving complex structural engineering problems.
Course Outcome:
CO1: Apply direct and iterative numerical methods for solving systems of linear algebraic equations and eigenvalue problems.
CO2: Utilize interpolation techniques and finite difference methods for function approximation and engineering analysis.
CO3: Apply finite difference methods to solve engineering problems involving differential equations, beam deflection, columns, and plates.
CO4: Perform numerical differentiation and numerical integration using various approximation techniques.
CO5: Solve ordinary differential equations, including initial value and boundary value problems, using numerical methods.
CO6: Analyze and solve real-world engineering problems using appropriate numerical techniques and computational approaches.

This course focuses on environmental pollution control and sustainable management, EIA, environmental legislation, and sustainable development practices.
Course Outcome:
CO1: Understand environmental concepts, ecosystems, and ecological relationships in environmental engineering.
CO2: Analyze sources, effects, and control measures of water, air, noise, and solid waste pollution.
CO3: Evaluate land degradation problems, deforestation, and resource management practices.
CO4: Analyze global environmental issues and apply environmental impact assessment methodologies for engineering projects.
CO5: Understand environmental management systems, environmental laws, and pollution control regulations.
CO6: Apply sustainable development principles, conservation practices, and climate change mitigation strategies in environmental management.

This course focuses on research problem formulation, literature review, identification of research gaps, and development of research objectives, scope, and methodology for engineering research.
Course Outcome:
CO1: Work on a extensive research and development project or technical project.
CO2: Review and evaluate the literature available related to chosen problem.
CO3: Validate theoretical and reported data with results obtained from numerical/ experimental/ analytical study.
CO4: Identify scope of future studies.

4TH SEMESTER SUBJECTS

This course focuses on completing research through experimentation, modelling, simulation, or case studies, followed by data analysis, validation, conclusions, recommendations, and final dissertation preparation and presentation.
Course Outcome:
CO1: Formulate research objectives, hypotheses, and methodology.
CO2: Design experiments or models to collect and analyze data effectively.
CO3: Interpret results and draw meaningful conclusions based on analysis.
CO4: Develop technical writing and presentation skills through report writing and defense.
CO5: Apply subject knowledge to solve real-world engineering problems independently.

fees

Details

Amount

Programme Fees (per Semester)

₹60000

Examination Fees

₹3000

International Fees (per Year)

$5300

Fee Slab

Slab >=60% - 74.99% >=75% - 89.99% >=90% & Above
Fee ₹55000 ₹50000 ₹45000

Students can avail these slots depending on the marks they have scored. Each slot reflects a different academic range, helping students understand where they stand and what benefits they qualify for.

Programme Outcomes

  • To prepare graduates with a strong foundation in Master of Technology in Civil Engineering with Specialization in Structure Engineering and problem solving skills in order to build successful careers professionals in industry, government, academia, research, entrepreneurial pursuit and consulting firms.
  • To equip students with analytical, design, development and soft skill to find
    innovative solutions to the real-world problems in collaboration with industry and professional societies.
  • To inculcate research paper, managerial skills and team work in our students through demonstration of good analytical, design and implementation skills for the betterment of individual and society at large.
  • To produce graduates who are ethical, socially responsible and lifelong learners to fulfill their goals.

Programme Specific Outcomes

  • Advanced Structural Design: To proficient in designing advanced structural systems, including high-rise buildings, bridges, and industrial structures, ensuring they adhere to industry standards, safety requirements, and functional specifications.
  • Seismic and Wind Load Analysis: Ability to analyze and design structures to withstand seismic and wind loads, utilizing advanced software tools and engineering principles to enhance structural resilience and safety.
  • Innovative Material Utilization: To be expertise in selecting and utilizing innovative construction materials, such as high-performance concrete, steel, composites, and sustainable materials, optimizing their application for enhanced structural performance.
  • Structural Rehabilitation and Retrofitting: Ability to be skilled in assessing existing structures and implementing rehabilitation and retrofitting techniques to extend their lifespan, improve performance, and ensure compliance with updated safety standards and regulations.

Infrastructure

Laboratory

Laboratory

What better way to learn working of anything than to get exposed to it first hand!. The specialized laboratories are equipped to conduct advanced practical and research work.