Course Overview

Calculus and Linear Algebra is a fundamental course designed to provide students with a comprehensive understanding of essential mathematical concepts that underpin various fields of science, engineering, economics, and technology. The course seamlessly integrates the principles of calculus and linear algebra, equipping students with a strong mathematical foundation crucial for advanced studies and problem-solving in Civil Engineering courses.

Course Outcomes

• To make understand to evaluate definite and improper integrals. Apart from these some special functions like Beta and Gamma function has to be introduced.
• Determine the information from a graph that when the second derivative is positive the graph is concave upward, when the second derivative is negative the graph is concave downward, and when there is a switch in sign there is an inflection point.
• Learn the concept of sequence and series.
• To provide an essential tool of matrices and linear algebra in a comprehensive manner.
• Learn the concept of application of matrices.

Course Overview

The course of Engineering Physics for Civil and Mechanical Engineers would give insight to understand the physics and its applications in day to day life. However to apply the basic principles wherever applicable.

Course Outcomes

• Understand the importance of mechanics
• Understand the importance of quantum physics
• Apply quantum ideas at the nanoscale
• Understand the materials characterization and instrumentation.

Course Overview

The course of Workshop Practices for Civil Engineers would facilitate the development of basic skills an engineer is expected to posses to supervise construction activities like brick masonry, woodwork, concerting, welding, finishing etc. including quality control and maintenances of safety to self, coworkers and the constructed components of the building.

Course Outcomes

• Identify and select appropriate materials and tools required for Carpentry, wielding and drilling work.
• Observe the technical aspects involved in workmanship of various plumbing tasks along with their safety measures
• Provide and fix the false ceiling , aluminum –glass works 5b. Carry out whitewashing and painting

Course Overview

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Course Outcomes

Course Overview

There is an increasing attention to ethics in engineering practice. Engineers are supposed not only to carry out their work competently and skilfully, but also to be aware of the broader ethical and social implications of engineering and to be able to reflect on these. According to the Engineering Criteria 2000 of the Accreditation Board for Engineering and Technology (ABET) in the US, engineers must have “an understanding of professional and ethical responsibility” and should "understand the impact of engineering solutions in a global and societal context.”

Course Outcomes

• Learn new concepts from industry experts
• Gain a foundational understanding of a subject or a tool
• Develop job-relevant skills with hands-on projects
• Earn a shareable career certificate

Course Overview

ODE, Probability and statustics aims to provide civil engineering graduates with a comprehensive understanding of advanced mathematical concepts and techniques applicable to engineering problems. Students will develop proficiency in differential equations, linear algebra, and numerical methods, essential for modeling and analyzing complex engineering systems. The course seeks to cultivate critical thinking and problem-solving skills, enabling graduates to apply mathematical principles effectively in engineering design, analysis, and decision-making processes. Through theoretical instruction and practical applications, students will enhance their quantitative reasoning abilities, preparing them for success in advanced civil engineering coursework and professional practice.

Course Outcomes

• Apply solutions of ordinary differential equations of various order.
• Apply solutions of partial differentiation equation of higher order.
• Analyse the complex analysis and solutions.
• Understand the concept of basic probability and its application
• Understand the concept of basic and applied statistics.

Course Overview

Chemistry Engineers aims to equip civil engineering graduates with a fundamental understanding of chemical principles and their applications in engineering contexts. Students will learn the properties of construction materials, corrosion mechanisms, and environmental impacts, enabling them to make informed decisions in material selection and design. The course seeks to foster interdisciplinary thinking by integrating chemical concepts with civil engineering practices, preparing graduates to address sustainability challenges and innovate in construction technologies. Through laboratory experiments and theoretical study, students will develop practical skills and critical thinking abilities essential for solving real-world engineering problems with chemical insight.

Course Outcomes

• Analyse microscopic chemistry in terms of atomic and molecular orbitals and intermolecular forces.
• Distinguish the ranges of the electromagnetic spectrum used for exciting different molecular energy levels in various spectroscopic techniques
• Understand bulk properties and processes using thermodynamic considerations
• Understand periodic properties such as ionization potential, electronegativity, oxidation states and electronegativity
• Analyse major chemical reactions that are used in the synthesis of molecules.

Course Overview

Engineering Drawing aims to equip civil engineering graduates with the essential skills to communicate and visualize engineering concepts through graphical representation and design principles. Students will learn to create accurate technical drawings, blueprints, and schematics using industry-standard software and drafting techniques. The course emphasizes spatial visualization and geometric modeling, enabling graduates to interpret and generate engineering designs effectively. Through hands-on projects and assignments, students will develop proficiency in interpreting and creating engineering drawings, preparing them for real-world applications in design, construction, and project management within the civil engineering field.

Course Outcomes

• Apply drawing principles accurately for conic sections, cycloid, epicycloid, hypocycloid, and involute.
• Create solid orthographic projections, auxiliary views, annotations, dimensions, and floor plans with windows, doors, and fixtures.
• Apply isometric principles and convert views, showing understanding of scale and conventions.
• Utilize computer graphics in CAD drawing, demonstrating knowledge of software theory, customizing settings, applying ISO and ANSI standards, and producing drawings using different coordinate input methods for lines and circles.
• Apply computer-aided geometric design.

Course Overview

Programming for Problem Solving" aims to equip civil engineering graduates with essential programming skills to tackle engineering challenges efficiently. Students will learn to use programming languages to model, simulate, and analyze civil engineering systems, enhancing problem-solving capabilities. The course fosters algorithmic thinking and logical reasoning, empowering graduates to develop innovative solutions to complex engineering problems. Through hands-on coding exercises and real-world applications, students will cultivate proficiency in programming languages relevant to civil engineering practices. Ultimately, graduates will be prepared to leverage computational tools to optimize designs, improve project efficiency, and contribute to sustainable infrastructure development.

Course Outcomes

• Understand the concept of computer system, analyze a given problem, develop an algorithm, fundamental programming constructs, identify data representation formats, and describe operators and their precedence, associativity
• Apply branching and loop statements in problem solving.
• Apply the concepts of homogeneous derived data types, heterogeneous data types, strings and functions in programming.
• Understand the concept of pointers and apply it in programming.
• Apply the concept of file handling in C programming.

Course Overview

This course aims to equip civil engineering students with the entrepreneurial mindset, skills, and tools needed to identify and capitalize on opportunities within the civil engineering and construction industries. The program combines principles of entrepreneurship with technical insights from civil engineering, enabling students to develop innovative solutions, create business models, and navigate the challenges of launching and managing ventures in the infrastructure sector.

Course Outcomes

• Demonstrate an understanding of fundamental entrepreneurial concepts, principles, and processes, including opportunity identification and business model development, particularly in the civil engineering domain.
• Develop a comprehensive business plan addressing feasibility, financial planning, and risk management for innovative projects in the civil engineering industry.
• Apply civil engineering knowledge to create innovative, sustainable, and economically viable solutions addressing real-world challenges in construction, infrastructure, and environmental sectors.
• Exhibit leadership and teamwork skills to manage multidisciplinary teams and lead entrepreneurial ventures effectively in the civil engineering field.
• Integrate ethical considerations and sustainability principles into entrepreneurial initiatives, ensuring environmentally responsible and socially impactful outcomes.

Course Overview

In this course students will discover the art of crafting a well-rounded college experience through extracurricular activities. By exploring the realms of leadership, team-building, and networking, participants will develop essential skills in planning, execution, and evaluation, while cultivating a sense of community and social responsibility. Through hands-on activities, case studies, and group discussions, students will learn how to identify and pursue their passions, build meaningful relationships with peers and mentors, and create a lasting impact on campus and beyond.

Course Outcomes

• Learn to a plan so that they can make meaningful contributions, maintain a commitment, and manage their time and priorities.
• Transform passionate students who demonstrate leadership and pursue interests beyond their academics.
• Learn to participate in various co-curricular activities leading to their multifaceted personality development
• Express their ideas, views, In-depth evaluation and analysis clearly in the topic of their interest.
• Demonstrate and practices different activities, by Integrating learning experiences by demonstrating transferable skills.

Course Overview

Biology for Engineers is designed to introduce engineering students to fundamental concepts in biology and their applications in engineering disciplines. The course aims to bridge the gap between biology and engineering, providing students with a strong foundation in biological principles relevant to their field of study.

Course Outcomes

• Discuss biological sciences, its scope and perspectives.
• Discuss regarding the ecological energetics, its working mechanism, identification of organisms.
• Analyse the mechanism of transfer of character from parent to next generation.
• Explain the genetic code and production of proteins.
• Interprets the relation between various physiological processes of our body

Course Overview

This course covers the properties, uses, and testing of various building materials, along with construction techniques and practices used in civil engineering. It aims to provide a foundational understanding of material selection, structural integrity, and sustainable construction methods.

Course Outcomes

• Identify and describe the physical, mechanical, and chemical properties of various building materials used in construction.
• Evaluate and select appropriate building materials for different types of construction projects based on their properties, cost, sustainability, and application.
• Students will demonstrate an understanding of various construction methods and techniques for building foundations, walls, roofs, and other structural components.
• Gain knowledge in quality control measures and testing procedures for building materials to ensure compliance with construction standards and codes.
• Analyze and apply environmentally friendly and sustainable practices in the selection of materials and construction methods to minimize the environmental impact.

Course Overview

This course introduces Civil Engineering students to the fundamental concepts and methods of solving Partial Differential Equations (PDEs) and applying mathematical transforms in the context of engineering problems. The course is designed to provide a strong theoretical and practical foundation for solving complex problems encountered in structural analysis, fluid mechanics, heat transfer, and vibration analysis, all of which are core to civil engineering applications

Course Outcomes

• Students will be able to identify, derive, and solve fundamental partial differential equations that arise in civil engineering contexts, such as in structural analysis, fluid dynamics, and heat transfer problems.
• Students will demonstrate the ability to apply appropriate boundary and initial conditions to solve real-world PDE problems in civil engineering, such as in the modeling of structural deformations or soil-structure interactions.
• Students will be able to effectively use mathematical transform methods such as Fourier and Laplace transforms to simplify and solve complex PDEs, particularly in the analysis of vibrations, wave propagation, and heat conduction.
• Students will gain proficiency in numerical methods for solving partial differential equations, including finite difference and finite element methods, and will be able to implement these methods for civil engineering applications like structural analysis and fluid flow modeling.
• Students will acquire the skills to model and simulate civil engineering systems involving dynamic and steady-state phenomena, applying PDEs and transforms to design solutions for real-world engineering problems, such as the prediction of material stresses, groundwater flow, or thermal behavior in structures.

Course Overview

Extra-curricular activities will help the students to enhance and engage in their selected hobbies and interests. It also allows them to explore their hidden talents and develop a positive outlook towards life.

Course Outcomes

• Engage students in their hobbies and interests.
• Allow the students to learn and display their hobbies.
• Enhance higher self-esteem and positive outcome
• Improve social skills of the students
• Engage students in their hobbies and interests.
• Allow the students to learn and display their hobbies.
• Enhance higher self-esteem and positive outcome
• Improve social skills of the students
• Engage students in their hobbies and interests.
• Allow the students to learn and display their hobbies.
• Enhance higher self-esteem and positive outcome
• Improve social skills of the students

Course Overview

Surveying and Geomatics is a branch of engineering and applied sciences that combines mathematics, physics, and geography to accurately measure and collect spatial information about the Earth for land development, mapping, engineering, and construction. It involves the use of aerial, satellite, and terrestrial methods to measure and analyze the Earth’s surface and subsurface. Surveyors use a variety of instruments and techniques, such as, Compass, levels, and theodolites, to measure distances, angles, elevations, areas, and volumes. Surveying skills are also used to set out the boundaries of a proposed construction site, to locate buried utilities and pipes, and to provide as-built data for engineering projects such as roads and buildings. Geomatics engineers use their surveying skills to produce maps, plans, and drawings that accurately represent the features of the Earth’s surface.

Course Outcomes

• Describe the basic concept of surveying and perform measurement of distance and angle
• Explain Methods of Leveling, contouring, and area & volume calculations
• Explain the concept of theodolite surveying and traversing
• Illustrate various types of curves, the concept of tachometric survey and principle of modern surveying
• Apply the concept and principle of Photogrammetry Surveying

Course Overview

Fundamental principles of mechanics; Introduction to the mechanics of def ormable bodies; Forces and Moments transmitte d by slender members; Stress- Strain; Stress-Strain Temperature relations; Torsion; stresses and deflections due to bending; Stability of equilibri um; Static failure criteria, ductile and brittle material; Dynamic failure criteria.

Course Outcomes

• Describe the concepts and principles, understand the theory of elasticity including strain/displacement and Hooke’s law relationships; and perform calculations, relative to the strength and stability of structures and mechanical components
• Define the characteristics and calculate the magnitude of combined stresses in individual members and complete structures; analyze solid mechanics problems using classical methods and energy methods
• Define the characteristics and calculate the magnitude of combined stresses in individual members and complete structures; analyze solid mechanics problems using classical methods and energy methods

Course Overview

This course introduces fundamental concepts of electronics, including circuit theory, semiconductors, and basic electronic components, tailored for civil engineering applications. It emphasizes understanding electronic systems for infrastructure monitoring and control.

Course Outcomes

• Understand the principles of electronic components, circuits, and semiconductor devices relevant to civil engineering applications.
• Analyze electronic applications in civil engineering for designing, constructing, and maintaining infrastructure.
• Acquire proficiency in digital electronics, including the understanding and application of logic gates for civil engineering applications.
• Improve problem-solving skills through hands-on exercises and practical application of electronic principles in civil engineering projects.
• Apply acquired knowledge in projects, designing and implementing electronic systems tailored for specific civil engineering applications.

Course Overview

Building Information Modelling (BIM) in Civil Engineering is a cutting-edge process that integrates digital tools to design, manage, and visualize construction projects. This course explores 3D modeling, project lifecycle management, and collaborative workflows for efficient infrastructure development. Gain skills to streamline construction processes, enhance decision-making, and drive innovation in civil engineering.

Course Outcomes

• Interpret the basic principles of BIM evolution and concept of BIM in lifecycle of project
• Apply Revit software tool to create the discipline-based model of the building,
• Apply the concept of clash detection & LOD (Level of Development).
• Apply 4D BIM principles, in project scheduling and reviewing project progress
• Develop Field BIM/4D BIM in coordination with site utilization planning, construction analysis, safety, disaster and risk analysis, digital fabrication, and scan to BIM

Course Overview

This course introduces students to the concepts and techniques of computational thinking—a problem-solving approach that involves breaking down problems, creating algorithms, and leveraging computational tools. It equips students with the skills to analyze complex issues, design efficient solutions, and use programming to implement and test these solutions.

Course Outcomes

• Introduction to Computational Thinking
• Problem-Solving Strategies
• Algorithm Development
• Introduction to Programming
• Data Representation and Manipulation

Course Overview

Fluid mechanics and hydraulics engineering explores fundamental concepts and practical applications in fluid flow. Students begin by understanding boundary layer flow and its relevance in various engineering contexts. They then delve into the equations governing open channel flow, analyzing their interactions and selecting appropriate equations for problem-solving. The course further investigates physical mechanisms behind hydraulic phenomena like jumps, surges, and different flow types, empowering students to apply mathematical relationships effectively in analyzing and predicting such hydraulic behaviors.'

Course Outcomes

• Summarize the concepts ofboundary layer flow and its applications.
• Summarize the terms of the open channel flow equations and explain the interactions among the terms.
• Analyze open channel flow problems through the selection and use of appropriate equations.
• Analyze the physical mechanisms of hydraulic jumps, surges, and critical, uniform, and gradually-varying flows.
• Apply mathematical relationships for hydraulic jumps, surges, and critical, uniform, and gradually-varying flows.

Course Overview

Instrumentation and Control is a fundamental course that explores the principles, design, and application of instruments and control systems used in engineering processes. This course provides students with an in-depth understanding of measurement systems, sensors, transducers, and control methodologies, preparing them to analyze, design, and implement efficient control strategies in various engineering domains.

Course Outcomes

• Students will be able to explain the working principles, characteristics, and applications of various sensors, transducers, and instruments used in measuring physical parameters like pressure, temperature, flow, and level. Students will be able to explain the working principles, characteristics, and applications of various sensors, transducers, and instruments used in measuring physical parameters like pressure, temperature, flow, and level. Students will be able to explain the working princip
• tudents will demonstrate the ability to model, analyze, and simulate dynamic systems using control theory principles, including transfer functions, block diagrams, and stability analysis.
• Students will acquire the skills to design, tune, and implement control systems, such as PID controllers, for regulating processes in industrial applications.
• Students will develop expertise in using data acquisition systems, signal conditioning circuits, and interfacing techniques for real-time monitoring and control.
• Students will be able to apply instrumentation and control concepts to design and optimize automation solutions in industries while considering safety, reliability, and energy efficiency. Students will be able to apply instrumentation and control concepts to design and optimize automation solutions in industries while considering safety, reliability, and energy efficiency. Students will be able to apply instrumentation and control concepts to design and optimize automation solutions

Course Overview

Transportation Engineering is a fundamental aspect of civil engineering that focuses on the planning, design, operation, and management of transportation systems. This course aims to provide students with a comprehensive understanding of various modes of transportation, their infrastructures, and their impact on society and the environment. It covers principles and methodologies essential for efficient and sustainable transportation systems.

Course Outcomes

• Describe different types of roads, its administration and highway survey techniques
• Design different geometric features of flexible and rigid pavement to determine ideal road alignment in different topographies
• Perform traffic survey to collect data required for traffic regulations and control
• Discuss about different materials and their suitability to be used in construction of road.
• Design various components of flexible and rigid pavements as per the latest code of practice.

Course Overview

Soil Mechanics &Geotechnical Engineering encompasses the study of soil behavior, classification, and properties, enabling the design of secure foundations and stable structures. It involves assessing slope stability, earthwork design, and understanding geotechnical investigation methods for effective decision-making in construction and environmental projects.

Course Outcomes

• Distinguish various soil type based on their properties and behabior.
• Calculate soil parameters of soils at different site condition.
• Predict the occuarance of failure of sub-soil beneath any foundation.
• Determine the bearing capacity of soil and possible settlement of the foundation.
• Test various direct and indirect soil exploration.

Course Overview

Structural Analysis I equips students with a comprehensive understanding of structural mechanics and engineering principles essential for designing various structures. Through theoretical foundations and practical applications, students learn to differentiate materials and loading systems, classify structures based on configuration and behavior, and apply design concepts to develop reinforced concrete members. Additionally, they gain insight into the basic concepts of special structures like bridges and towers, understanding their unique design considerations and challenges. By the course's end, students emerge proficient in analyzing structural elements, comprehending structural behavior, and applying design principles to real-world engineering scenarios.

Course Outcomes

• Demonstrate their knowledge of structural mechanics in addressing design problems of structural engineering.
• Distinguish the varying materials and different loading systems in a structure.
• Classify structures and explain their behaviour by drawing its components and forces acting on it.
• Apply the design concepts to develop a R.C.C. members.
• Explain the basic concepts of special structures.

Course Overview

Environmental Engineering is a comprehensive course that addresses water supply, wastewater treatment, air quality control, solid waste management, and building plumbing systems. Students will explore sources of water and water quality issues, water treatment processes, sewage conveyance and treatment, air pollution quantification and control, and integrated solid waste management. Additionally, the course covers building plumbing systems and their components. Throughout the program, students will develop a deep understanding of environmental regulations, sustainable practices, and the crucial role of environmental engineers in protecting public health and the environment.

Course Outcomes

• Analyze characteristics of water and wastewater
• Estimate the quantity of drinking water and domestic wastewater generated
• Design components of water supply systems
• Design sewerage system
• Be able to plan strategies to control, reduce and monitor pollution.

Course Overview

Transportation Engineering is a specialized field of civil engineering that focuses on the planning, design, operation, and maintenance of transportation systems. Students learn about traffic flow theory, transportation planning, geometric design, pavement design, and traffic management techniques. Additionally, the course covers sustainable transportation practices and emerging technologies, preparing students to address the challenges of modern transportation systems

Course Outcomes

• Describe different types of roads, its administration and highway survey technique
• Design different geometric features of flexible and rigid pavement to determine ideal road alignment indifferent topographies
• Perform traffic survey to collect data required for traffic regulations and control
• Discuss about different materials and their suitability to be used in construction of road.
• Design various components of flexible and rigid pavements as per the latest code of practice

Course Overview

Co-curricular refers to activities, programs, and learning experiences that complement, in some way, what students are learning in school i.e., experiences that are connected to or mirror the academic curriculum.

Course Outcomes

• Develop various domains of mind and personality such as intellectual development.
• Develop various domains of mind and emotions.
• Develop various domains of mind and social development, moral development, and aesthetic development.
• Develop enthusiasm, and Energetic, Positive thinking personality development and the outcomes of co-curricular activities.
• Develop positive thinking which is the facet of personality development and the outcomes of co-curricular activities.

Course Overview

Extra-curricular activities will help the students to enhance and engage in their selected hobbies and interests. It also allows them to explore their hidden talents and develop a positive outlook towards life.

Course Outcomes

• Engage students in their hobbies and interests.
• Allow the students to learn and display their hobbies.
• Enhance higher self-esteem and positive outcome
• Improve social skills of the students
• Engage students in their hobbies and interests.
• Allow the students to learn and display their hobbies.
• Enhance higher self-esteem and positive outcome
• Improve social skills of the students
• Engage students in their hobbies and interests.
• Allow the students to learn and display their hobbies.
• Enhance higher self-esteem and positive outcome
• Improve social skills of the students
• Engage students in their hobbies and interests.
• Allow the students to learn and display their hobbies.
• Enhance higher self-esteem and positive outcome
• Improve social skills of the students
• Engage students in their hobbies and interests.
• Allow the students to learn and display their hobbies.
• Enhance higher self-esteem and positive outcome
• Improve social skills of the students

Course Overview

Explore the fascinating world of Mechanics of Materials in Civil Engineering, where you'll delve into the behavior of structural components under various loads and stresses. This course equips you with the essential knowledge to analyze and design resilient structures, ensuring their safety and longevity. Uncover the principles governing material deformation, stress distribution, and failure mechanisms, and apply this understanding to real-world engineering challenges.

Course Outcomes

• To understand the basics of material properties, stress and strain.
• To apply knowledge of mathematics, science, for engineering applications.
• Ability to identify, formulates, and solve engineering & real life problems.
• Ability to design and conduct experiments, as well as to analyze and interpret data.
• Understand fundamental concepts related to deformation, moment of inertia, load carrying capacity, shear forces, bending moments, torsional moments, column and struts.

Course Overview

The course in Structural Engineering covers essential concepts such as energy principles, stability, and equilibrium, while focusing on the strength, durability, and safety of buildings, bridges, and other structures. Students will learn to analyze and design structural systems, including concrete and steel elements, as well as explore wind and earthquake loads. The course also introduces special topics like cable structures, prestressed concrete bridges, and fire protection.

Course Outcomes

• Understand the concepts of energy principles, safety, sustainable development in performance; what makes a structure; principles of stability, equilibrium; what is a structural engineer, role of engineer, architect, user, builder; what are the functions’ what do the engineers design, first principles of process of design.
• Describe Materials, Loads, and Design Safety; Behavior and Properties of Concrete and Steel; Wind and Earthquake Loads.
• Understand and analyses of determinate and indeterminate trusses, beams, and frames and design philosophies for structural engineering.
• Able to design of Reinforced Concrete Beams for Flexure; Design of Reinforced Concrete Beams for Shear; Bond, Anchorage, and Serviceability; Reinforced Concrete Columns; Reinforced Concrete Slabs.
• Able to understand Special Topics that may be Covered as Part of the Design Project Discussions; Cable Structures; Prestressed Concrete Bridges; Constructability and Structural Control; Fire Protection.

Course Overview

The course explores the key principles and frameworks essential for developing and executing successful entrepreneurial strategies in a dynamic business environment. Students will learn to evaluate business opportunities, identify and mitigate risks, and design sustainable growth strategies for new ventures. The course emphasizes the role of innovation, competitive advantage, and market positioning in entrepreneurship, focusing on both the challenges and opportunities faced by entrepreneurs in launching and scaling businesses.

Course Outcomes

• Develop the ability to identify and evaluate profitable business opportunities.
• Formulate innovative business models and value propositions.
• Create actionable strategic plans for launching and scaling entrepreneurial ventures.
• Enhance leadership skills for managing teams and resources in a startup environment.
• Master risk management and decision-making strategies to ensure business sustainability and growth.

Course Overview

Hydrology is a branch of geoscience concerned with the origin, distribution, movement, and properties of waters of the earth. This includes fluid flow and transport of contaminants in the subsurface environment. Past and present research focuses on a broad spectrum of hydrologic problems. These range from quantifying snow distribution and melt, rainfall and infiltration processes, floods, droughts, terminal lake responses, soil erosion, and groundwater/surface water exchanges

Course Outcomes

• Learn to remember the key drivers of water resources, hydrological processes, and their integrated behavior in catchments
• Learn to apply the knowledge of hydrological models to surface water problems including basin characteristics, runoff, and hydrograph
• Learn to explain the concept of hydrological extremes such as flood and drought and their management strategies
• Learn to apply the concepts of groundwater for water resources management
• Learn the importance of spatial analysis of rainfall and design water storage reservoirs
• Learn to remember the key drivers of water resources, hydrological processes, and their integrated behavior in catchments
• Learn to apply the knowledge of hydrological models to surface water problems including basin characteristics, runoff, and hydrograph
• Learn to explain the concept of hydrological extremes such as flood and drought and their management strategies
• Learn to apply the concepts of groundwater for water resources management
• Learn the importance of spatial analysis of rainfall and design water storage reservoirs
• Learn to remember the key drivers of water resources, hydrological processes, and their integrated behavior in catchments
• Learn to apply the knowledge of hydrological models to surface water problems including basin characteristics, runoff, and hydrograph
• Learn to explain the concept of hydrological extremes such as flood and drought and their management strategies
• Learn to apply the concepts of groundwater for water resources management
• Learn the importance of spatial analysis of rainfall and design water storage reservoirs
• Learn to remember the key drivers of water resources, hydrological processes, and their integrated behavior in catchments
• Learn to apply the knowledge of hydrological models to surface water problems including basin characteristics, runoff, and hydrograph
• Learn to explain the concept of hydrological extremes such as flood and drought and their management strategies
• Learn to apply the concepts of groundwater for water resources management
• Learn the importance of spatial analysis of rainfall and design water storage reservoirs

Course Overview

This course deals with how structures are built and projects are developed on the field. After completion of the course students will have an understanding of modern construction practices, construction dynamics, resources required, cost estimation, project economics and administration of construction projects.

Course Outcomes

• Learn to define idea of how structures are built and projects are developed on the field
• Learn to examine the resource planning
• Learn to conclude plan, control, and monitor construction projects concerning time and cost
• Learn to illustrate periodic progress reports, Updating of plans, Cost Optimization
• Learn to derive evaluation criteria and attributes for Construction Projects

Course Overview

This course will help introduce the students to various hydraulic engineerings problems like open channel flows and hydraulic machines. After the course, the student should be able to perform different types of experiments related to hydraulic engineering

Course Outcomes

• Learn to apply knowledge of fluid mechanics in addressing problems in open channels
• Learn to solve problems in uniform flows in steady state conditions
• Learn to solve problems in gradually and rapidly varied flows in steady state conditions
• Learn to work as a leader or team member in designing and performing the laboratory
• Learn to write effective report based on outcome of the lab

Course Overview

Techno Professional Skills in Civil Engineering focuses on equipping students with technical and interpersonal skills, including project management, teamwork, and effective communication, crucial for success in the civil engineering field.

Course Outcomes

• Demonstrate effective communication skills for technical presentations, report writing, and interpersonal interactions within a civil engineering context.
• Work effectively in multidisciplinary teams, exhibiting leadership skills in the management of projects and collaborative activities.
• Apply modern tools and technology to solve real-world civil engineering problems, emphasizing analytical and innovative approaches.
• Demonstrate a clear understanding of professional ethics, responsibilities, and the impact of civil engineering solutions on society and the environment.
• Apply basic principles of project management, including planning, resource allocation, and scheduling in civil engineering projects.

Course Overview

Positive Psychology explores the science of well-being and human flourishing, focusing on understanding and promoting factors that contribute to a fulfilling and meaningful life. This course provides an overview of key concepts such as happiness, resilience, optimism, and strengths-based approaches to personal development. Through a combination of theory, research, and practical exercises, students will learn strategies for enhancing their own well-being and fostering positive relationships and communities. Topics include the role of positive emotions, mindfulness, gratitude, and character strengths in promoting psychological health and resilience. By the end of the course, students will have gained a deeper understanding of the factors that contribute to a fulfilling life and will be equipped with practical tools to cultivate greater well-being and happiness in themselves and others.

Course Outcomes

• Explain the effect of psychology to improve well-being and success in both personal and work life.
• Infer about hope, optimism, positive illusions and playfulness.
• Summarize about Creativity, Giftedness & Industry, Judgment, Wisdom & Fairness, Emotional Intelligence & Prudence.
• Discuss about Spirituality, Love & Kindness, Gratitude & Zest, Modesty & Forgiveness
• Generalize Altruism & Empathy & Social Intelligence, Positive Psychology at Work – Leadership, & Teamwork.

Course Overview

Design of RC structure is an advanced course that builds upon the foundational concepts of structural analysis covered in Structural Analysis I. It delves deeper into the analysis and design of complex structural systems, introducing topics such as advanced analysis methods, indeterminate structures, structural dynamics, stability analysis, plastic analysis, and design considerations. Through this course, students gain the knowledge and skills needed to analyze and design sophisticated structures, preparing them for real-world engineering challenges in civil engineering field.

Course Outcomes

• Understand and apply the principles of structural analysis to assess the behavior of reinforced concrete elements.
• Demonstrate an understanding of relevant design codes and standards for reinforced concrete structures.
• Develop the ability to critically evaluate different design alternatives and make informed decisions.
• Develop skills in designing various structural elements such as beams, slabs, columns, and foundations based on the given loading and design codes.
• Gain knowledge about the construction processes involved in implementing reinforced concrete designs.

Course Overview

Summarize the basic principal and standard methods for working out quantities in estimating.Demonstrate the detailed estimate of buildings and workout rate analysis of the various items ofwork. Understand the material requirements as per specified norms and standards Assess the valuation of buildings and provide practical knowledge of standard specifications of items of buildings construction.

Course Outcomes

• Understand how the principles of demand and supply impact resource allocation in engineering projects.
• Applying cost-benefit analysis is a crucial outcome in Engineering Economics
• Utilise the mid sectional area and mean sectional area methods for determining earth work quantities of road and canal embankment.
• Analyze the quantities of materials of various components used in construction works as per specifications for preparation of rate analysis.
• Classify the different methods of valuation to asses the the actual value of the property and identify the use of contract documents, tender documents and bidding details of the projects.

Course Overview

Structural Analysis II is an advanced course that builds upon the foundational concepts of structural analysis covered in Structural Analysis I. It delves deeper into the analysis and design of complex structural systems, introducing topics such as advanced analysis methods, indeterminate structures, structural dynamics, stability analysis, plastic analysis, and design considerations. Through this course, students gain the knowledge and skills needed to analyze and design sophisticated structures, preparing them for real-world engineering challenges in civil engineering field.

Course Outcomes

• Understand and apply the principles of structural analysis to assess the behavior of reinforced concrete elements.
• Demonstrate an understanding of relevant design codes and standards for reinforced concrete structures.
• Develop the ability to critically evaluate different design alternatives and make informed decisions.
• Develop skills in designing various structural elements such as beams, slabs, columns, and foundations based on the given loading and design codes.
• Gain knowledge about the construction processes involved in implementing reinforced concrete designs.

Course Overview

Pavement materials is a fundamental aspect of civil engineering that focuses on the planning, design, operation, and management of transportation systems. This course aims to provide students with a comprehensive understanding of various modes of transportation, their infrastructures, and their impact on society and the environment. It covers principles and methodologies essential for efficient and sustainable transportation systems.

Course Outcomes

• Describe different types of roads, its administration and highway survey techniques
• Design different geometric features of flexible and rigid pavement to determine ideal road alignment in different topographies
• Perform traffic survey to collect data required for traffic regulations and control
• Discuss about different materials and their suitability to be used in construction of road.
• Design various components of flexible and rigid pavements as per the latest code of practice.

Course Overview

"Irrigation Engineering"" course covers irrigation concepts, hydraulic structures, and water estimation for crops. Students learn to analyze, plan, and design irrigation projects, including channels and structures for various purposes like drainage and flood control. They also apply math, science, and technology to address water management challenges effectively."

Course Outcomes

• Summarize the Concepts of irrigation and different hydraulic structures.
• Summarize the estimation the quantity of water required by crops.
• Analyze, plan and design irrigation projects.
• Design channels and other irrigation structures required for irrigation, drainage, soil conservation, flood control and other water-management projects.
• Apply math, science, and technology in the field of water resource engineering.

Course Overview

This course provides an in-depth understanding of the fundamental and applied aspects of physico-chemical processes used in water and wastewater treatment. It is designed for students and professionals interested in the principles, design, and application of these processes to achieve sustainable water quality management.

Course Outcomes

• Explain the inter-relationship between water quality parameters and plant sizing, hydraulics and layout. Able to design intake structures.
• Generalize the basic principles and concepts and processes involved in water and waste water treatment.
• Utilize student’s skill in the basic design of unit operations and processes involved in water and wastewater treatment.
• Discuss the basics of water treatment plant composition and its characteristics.
• Design the structures involved in an water treatment plant.

Course Overview

Surface water hydrology is one of the core courses in civil engineering that covers a wide range of topics related to different components, at or near earth’s surface of the global hydrological cycle. The spread of knowledge base is wide and relevant topics are multiple in this major field of study. To provide a comprehensive learning strategy, this course is sub-divided into three major modules, namely Hydrological Processes, Hydrological Analysis and Hydrological Design. The first module starts with the fundamental concept of hydrology and hydrologic cycle and its importance on earth. This module ends with an overall discussion on the importance of this subject in the context of climate change as a part of motivation. Next module focuses on different important components of the hydrologic cycle, starting with the most vital one i.e., precipitation and gradually discussing evaporation, evapotranspiration, infiltration, run-off, streamflow, flood etc. All necessary theoretical concepts of each process, their physical modelling and their real-life measuring arrangements are discussed elaborately. Necessary schematics diagrams and practical photographs are used along with illustrative examples to make the theoretical concepts clear. More real-life applications are considered in the last module in which Hydrological design concepts are developed.

Course Outcomes

• Explain the different concepts in hydro-metrology.
• Discuss the key aspects of hydrology, along with a more applied appreciation of monitoring and modelling hydrological processes.
• Generalize knowledge on topics ranging from climatology, atmospheric circulation and meteorological measurements, as well as more detailed investigations into precipitation, stream flow measurement, hydrograph analysis, storm runoff and concepts in flood estimation and routing.
• Explain the relevance of various components of hydrologic cycle, which are responsible for spatial and temporal distribution of water availability in any region.
• Develop students’ in-depth understanding on how hydrologic principles can be applied to supplement decision support system for water and environmental management.

Course Overview

Design of Steel Structures is a course that focuses on the principles of designing steel structures, covering material specifications, stability, and connection design. This course reviews fundamentals, including the Limit State Method of Design. It emphasizes the design of structural steel members in frames, trusses, and various civil engineering projects. The latest Indian Standard Code is used for the design methodology. It includes the analysis of steel frame structures for local and global buckling and material failure. Overall, the course provides students with a comprehensive understanding of steel structure design and its applications in civil engineering projects.

Course Outcomes

• Understand the basic elements of a steel structure.
• Understand the fundamentals of structural steel fasteners.
• Applying engineering concepts which are applied in field of Steel Structures.
• Design welded, bolted connections.
• Design basic elements of steel structure like tension members, compression members, plate girder, plastic analysis.

Course Overview

The "Industrial Mock Viva" subject aims to prepare civil engineering graduates for professional interviews and assessments by simulating authentic industrial scenarios. Students will refine their communication, problem-solving, and critical thinking skills through mock interviews, enhancing their readiness for the job market. The objective is to bridge the gap between academic learning and practical industry expectations, ensuring graduates can confidently navigate real-world employment processes. Through constructive feedback and self-reflection, students will develop the confidence and professionalism necessary to excel in interviews and secure employment opportunities within the civil engineering field.

Course Outcomes

• Demonstrate the ability to articulate technical concepts clearly and confidently during mock interviews, enhancing communication skills crucial for professional interactions in the industry.
• Through simulated industrial scenarios, development of adept problem-solving skills, showcasing capacity to analyze complex engineering challenges and propose practical solutions under pressure.
• Apply theoretical knowledge gained throughout the civil engineering education to real-world industrial contexts, demonstrating understanding of industry standards, practices, and regulations.
• Refine professional demeanor, demonstrating appropriate etiquette, conduct, and attitude expected in real-life job interviews and professional interactions.
• Through feedback from mock viva sessions, reflection of performance, identification of areas for improvement, and development of strategies to enhance interview skills, bolstering readiness for future industrial placements and career opportunities.

Course Overview

Soil Mechanics I builds upon the foundational principles introduced in Soil Mechanics I, focusing on advanced concepts and practical applications in geotechnical engineering. This course explores soil behavior under various loading conditions, advanced soil testing methods, and the analysis and design of geotechnical structures. Students will develop a deeper understanding of soil-structure interaction and learn to apply theoretical concepts to real-world civil engineering challenges.

Course Outcomes

• Analyzing failure envelopes, understanding active and passive earth pressure, and applying Coulomb’s wedge theory in geotechnical engineering.
• Demonstrate proficiency in analyzing the stability of slopes through various methods, including finite and infinite slope stability analysis.
• Apply principles of bearing capacity for design of foundations, with a focus on minimizing settlements within tolerable limits
• Demonstrate proficiency in designing and analyzing pile foundations, including knowledge of pile driving, load capacity, group action, negative skin friction etc.

Course Overview

Soil Mechanics II builds upon the foundational principles introduced in Soil Mechanics I, focusing on advanced concepts and practical applications in geotechnical engineering. This course explores soil behavior under various loading conditions, advanced soil testing methods, and the analysis and design of geotechnical structures. Students will develop a deeper understanding of soil-structure interaction and learn to apply theoretical concepts to real-world civil engineering challenges.

Course Outcomes

• Analyzing failure envelopes, understanding active and passive earth pressure, and applying Coulomb’s wedge theory in geotechnical engineering.
• Demonstrate proficiency in analyzing the stability of slopes through various methods, including finite and infinite slope stability analysis.
• Apply principles of bearing capacity for design of foundations, with a focus on minimizing settlements within tolerable limits
• Demonstrate proficiency in designing and analyzing pile foundations, including knowledge of pile driving, load capacity, group action, negative skin friction etc.