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    Scholarships & exams

    support@collegese.com
    +91 88943 57155
    Pune, Maharashtra, India

    Duration

    4 Years

    Environmental Engineering

    NAGAJI INSTITUTE OF TECHNOLOGY AND MANAGEMENT GWALIOR
    Duration
    4 Years
    Environmental Engineering UG OFFLINE

    Duration

    4 Years

    Environmental Engineering

    NAGAJI INSTITUTE OF TECHNOLOGY AND MANAGEMENT GWALIOR
    Duration
    Apply

    Fees

    ₹12,00,000

    Placement

    92.0%

    Avg Package

    ₹6,50,000

    Highest Package

    ₹15,00,000

    OverviewAdmissionsCurriculumFeesPlacements
    4 Years
    Environmental Engineering
    UG
    OFFLINE

    Fees

    ₹12,00,000

    Placement

    92.0%

    Avg Package

    ₹6,50,000

    Highest Package

    ₹15,00,000

    Seats

    100

    Students

    300

    ApplyCollege

    Seats

    100

    Students

    300

    Curriculum

    Curriculum Overview for Environmental Engineering Program

    The curriculum for the Environmental Engineering program at Nagaji Institute of Technology and Management Gwalior is meticulously designed to provide students with a comprehensive understanding of environmental systems, engineering principles, and sustainable practices. The structure spans 8 semesters over 4 years, integrating foundational sciences, core engineering concepts, specialized electives, laboratory work, field projects, and capstone research.

    Year One Courses

    Course Code Full Course Title Credit Structure (L-T-P-C) Pre-requisites
    ENG101 Engineering Mathematics I 3-1-0-4 None
    ENG102 Engineering Physics 3-1-0-4 None
    ENG103 Basic Mechanics and Thermodynamics 3-1-0-4 None
    ENG104 Introduction to Environmental Science 2-1-0-3 None
    ENG105 Computer Programming 3-1-0-4 None
    ENG106 Engineering Drawing and Graphics 2-1-0-3 None
    ENG107 Environmental Lab I 0-0-3-1 None

    Year Two Courses

    Course Code Full Course Title Credit Structure (L-T-P-C) Pre-requisites
    ENG201 Engineering Mathematics II 3-1-0-4 ENG101
    ENG202 Chemistry for Engineers 3-1-0-4 None
    ENG203 Fluid Mechanics 3-1-0-4 ENG103
    ENG204 Heat Transfer 3-1-0-4 ENG103
    ENG205 Environmental Chemistry 3-1-0-4 ENG202
    ENG206 Water Resources Engineering 3-1-0-4 ENG203
    ENG207 Environmental Lab II 0-0-3-1 ENG107

    Year Three Courses

    Course Code Full Course Title Credit Structure (L-T-P-C) Pre-requisites
    ENG301 Waste Management Systems 3-1-0-4 ENG205
    ENG302 Air Pollution Control Engineering 3-1-0-4 ENG203
    ENG303 Environmental Impact Assessment 3-1-0-4 ENG206
    ENG304 Sustainable Design Principles 3-1-0-4 ENG205
    ENG305 Environmental Modeling and Simulation 3-1-0-4 ENG201
    ENG306 Industrial Ecology 3-1-0-4 ENG301
    ENG307 Environmental Lab III 0-0-3-1 ENG207

    Year Four Courses

    Course Code Full Course Title Credit Structure (L-T-P-C) Pre-requisites
    ENG401 Capstone Project I 0-0-6-3 ENG307
    ENG402 Capstone Project II 0-0-6-3 ENG401
    ENG403 Advanced Environmental Engineering Topics 3-1-0-4 ENG305
    ENG404 Research Methodology in Environmental Engineering 2-1-0-3 ENG307
    ENG405 Professional Ethics and Sustainability 2-1-0-3 None
    ENG406 Environmental Internship 0-0-6-3 ENG401

    Advanced Departmental Elective Courses

    • Advanced Water Treatment Technologies: This course delves into cutting-edge techniques for removing contaminants from water, including membrane filtration, advanced oxidation processes, and biological treatment systems. Students explore the design and operation of these technologies in real-world settings.
    • Atmospheric Chemistry and Modeling: Designed to equip students with a deep understanding of atmospheric processes, this course covers topics such as greenhouse gas emissions, chemical reactions in the atmosphere, and modeling tools used for air quality prediction.
    • Renewable Energy Integration: This elective focuses on integrating renewable energy sources into existing power grids. Students study solar, wind, hydroelectric systems, and their impact on environmental sustainability and energy security.
    • Life Cycle Assessment (LCA) and Sustainability Metrics: This course teaches students how to assess the environmental impacts of products or services throughout their life cycle, from raw material extraction to end-of-life disposal.
    • Sustainable Urban Planning and Development: Students learn about sustainable urban design principles, green infrastructure, and smart city technologies that promote environmental resilience and human well-being.
    • Environmental Data Analytics: This course introduces students to statistical tools and software used for analyzing environmental data, including time series analysis, regression modeling, and predictive analytics.
    • Climate Change Mitigation Strategies: Focuses on strategies to reduce greenhouse gas emissions and adapt to climate change impacts. Topics include carbon capture and storage, adaptation planning, and policy frameworks for emission reduction.
    • Biodiversity Conservation Techniques: Covers methods for conserving biodiversity in natural and managed ecosystems. Students engage with case studies on habitat restoration, species reintroduction programs, and ecological monitoring techniques.
    • Eco-friendly Materials and Biodegradable Polymers: Explores the development and application of environmentally sustainable materials, including bioplastics, bio-based composites, and green chemistry principles.
    • Environmental Monitoring Systems: This course teaches students how to design, deploy, and interpret data from environmental monitoring systems, including remote sensing technologies and IoT-based sensors.

    Project-Based Learning Philosophy

    The program strongly emphasizes project-based learning as a core pedagogical approach. Projects are designed to mirror real-world challenges, encouraging students to apply theoretical knowledge in practical contexts. Mini-projects begin in the third year, allowing students to explore specific environmental issues under faculty guidance. These projects are assessed based on technical accuracy, innovation, teamwork, and presentation skills.

    The final-year capstone project represents the culmination of all learning experiences. Students select topics aligned with current global environmental challenges, such as climate change adaptation, sustainable waste management, or renewable energy integration. They collaborate with industry partners, work under faculty mentors, and present their findings to panels of experts. The evaluation criteria include research depth, methodology, impact analysis, and professional presentation.

    Faculty mentorship plays a crucial role in project selection and development. Students receive guidance on topic identification, literature review, experimental design, data collection, and analysis. Regular feedback sessions ensure that projects remain aligned with academic standards and industry relevance.