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Scholarships & exams

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+91 88943 57155
Pune, Maharashtra, India

Duration

4 Years

Bachelor of Technology in Engineering

Oriental University Indore
Duration
4 Years
Engineering UG OFFLINE

Duration

4 Years

Bachelor of Technology in Engineering

Oriental University Indore
Duration
Apply

Fees

₹3,50,000

Placement

92.0%

Avg Package

₹4,50,000

Highest Package

₹8,00,000

OverviewAdmissionsCurriculumFeesPlacements
4 Years
Engineering
UG
OFFLINE

Fees

₹3,50,000

Placement

92.0%

Avg Package

₹4,50,000

Highest Package

₹8,00,000

Seats

150

Students

1,200

ApplyCollege

Seats

150

Students

1,200

Curriculum

Curriculum Overview

The curriculum for the Bachelor of Technology in Engineering at Oriental University Indore is designed to provide a comprehensive and rigorous academic experience that prepares students for successful careers in the field of engineering. The program spans eight semesters, with each semester containing a carefully curated mix of core courses, departmental electives, science electives, and laboratory sessions.

Semester-wise Course Structure

SemesterCourse CodeCourse TitleCredit (L-T-P-C)Pre-requisites
1ENG101Introduction to Engineering3-0-0-3-
1MAT101Engineering Mathematics I4-0-0-4-
1PHY101Physics for Engineers3-0-0-3-
1CHM101Chemistry Laboratory0-0-2-1-
1ENG102Engineering Graphics2-0-0-2-
1ENG103Computer Programming3-0-0-3-
1ENG104Engineering Workshop0-0-2-1-
2MAT201Engineering Mathematics II4-0-0-4MAT101
2PHY201Electromagnetic Fields3-0-0-3PHY101
2CSE201Data Structures and Algorithms3-0-0-3ENG103
2MECH201Mechanics of Materials3-0-0-3-
2CIVIL201Introduction to Civil Engineering3-0-0-3-
2CHM201Chemistry for Engineers3-0-0-3CHM101
2ENG201Technical Communication2-0-0-2-
3MAT301Engineering Mathematics III4-0-0-4MAT201
3PHY301Thermodynamics3-0-0-3PHY201
3CSE301Database Management Systems3-0-0-3CSE201
3MECH301Fluid Mechanics3-0-0-3MECH201
3CIVIL301Structural Analysis3-0-0-3CIVIL201
3CHM301Chemical Engineering Principles3-0-0-3CHM201
3ENG301Professional Ethics and Social Responsibility2-0-0-2-
4MAT401Engineering Mathematics IV4-0-0-4MAT301
4PHY401Electrical Circuits and Networks3-0-0-3PHY301
4CSE401Operating Systems3-0-0-3CSE301
4MECH401Heat Transfer3-0-0-3MECH301
4CIVIL401Geotechnical Engineering3-0-0-3CIVIL301
4CHM401Process Control and Instrumentation3-0-0-3CHM301
4ENG401Project Management2-0-0-2-
5CSE501Advanced Algorithms3-0-0-3CSE401
5MECH501Mechanical Design3-0-0-3MECH401
5CIVIL501Transportation Engineering3-0-0-3CIVIL401
5CHM501Reactor Engineering3-0-0-3CHM401
5ENG501Entrepreneurship and Innovation2-0-0-2-
6CSE601Machine Learning3-0-0-3CSE501
6MECH601Automotive Engineering3-0-0-3MECH501
6CIVIL601Environmental Engineering3-0-0-3CIVIL501
6CHM601Materials Processing3-0-0-3CHM501
6ENG601Capstone Project I0-0-4-2-
7CSE701Advanced Data Analytics3-0-0-3CSE601
7MECH701Manufacturing Systems3-0-0-3MECH601
7CIVIL701Sustainable Urban Planning3-0-0-3CIVIL601
7CHM701Bioprocess Engineering3-0-0-3CHM601
7ENG701Capstone Project II0-0-4-2ENG601
8CSE801Special Topics in Computer Engineering3-0-0-3-
8MECH801Advanced Thermodynamics3-0-0-3-
8CIVIL801Project Management and Risk Assessment3-0-0-3-
8CHM801Advanced Materials Science3-0-0-3-
8ENG801Final Year Thesis0-0-6-3ENG701

Advanced Departmental Elective Courses

Departmental electives form a crucial part of the curriculum, allowing students to explore specialized areas within their chosen field. These courses are designed to provide in-depth knowledge and practical skills that align with current industry trends and research directions.

The 'Advanced Algorithms' course is a cornerstone for Computer Science Engineering students. It delves into complex algorithmic techniques including approximation algorithms, online algorithms, and parameterized complexity theory. Students engage in advanced problem-solving sessions where they implement novel approaches to classic computational problems. The course culminates in a project involving the design of an efficient algorithm for a real-world application such as network routing or data compression.

'Machine Learning' is another key elective that builds upon foundational concepts in artificial intelligence and statistics. Students study various machine learning models including neural networks, support vector machines, decision trees, and ensemble methods. The course emphasizes both theoretical understanding and practical implementation through hands-on lab sessions using popular frameworks like TensorFlow and PyTorch.

The 'Embedded Systems Design' course explores the integration of software and hardware in embedded applications. Students learn to design systems for microcontrollers, real-time operating systems, and sensor networks. Projects involve building functional prototypes for IoT devices, automotive control systems, and industrial automation equipment.

'Control Systems Design' is essential for Electrical Engineering students. It covers classical control theory, state-space methods, digital control systems, and modern control design techniques. Students work on projects involving the design of controllers for robotic systems, power electronics, and aerospace applications.

'Renewable Energy Systems' introduces students to solar, wind, hydroelectric, and geothermal technologies. The course covers energy conversion principles, system design considerations, and economic analysis of renewable energy projects. Practical components include site assessment studies and the design of small-scale renewable energy systems.

'Manufacturing Processes' provides comprehensive coverage of modern manufacturing techniques including additive manufacturing, precision machining, and quality control methods. Students gain hands-on experience through lab sessions using CNC machines, 3D printers, and inspection equipment. Projects focus on optimizing manufacturing processes for cost reduction and improved efficiency.

'Structural Analysis' teaches advanced methods for analyzing complex structures under various loading conditions. Students learn to use finite element software to model and simulate structural behavior. The course includes case studies of real-world structures such as bridges, skyscrapers, and offshore platforms.

'Environmental Engineering' covers pollution control technologies, waste management systems, and sustainable development practices. Students study water treatment processes, air quality modeling, and environmental impact assessment methodologies. Practical components include laboratory experiments and field visits to industrial facilities and wastewater treatment plants.

'Bioprocess Engineering' combines principles of biology and engineering to design and optimize biological systems for commercial applications. Topics include fermentation technology, downstream processing, and bioreactor design. Students work on projects involving the development of new products such as pharmaceuticals, biofuels, and food additives.

'Materials Science' explores the relationship between material properties and their microstructure. Students study crystallography, phase diagrams, mechanical behavior, and advanced characterization techniques. Projects involve designing new materials for specific applications such as high-temperature alloys or biocompatible implants.

Project-Based Learning Philosophy

Oriental University Indore places significant emphasis on project-based learning as a fundamental component of engineering education. This approach ensures that students develop both technical competencies and practical problem-solving skills necessary for professional success.

The program includes mandatory mini-projects in the second and fourth years, which are designed to reinforce theoretical concepts learned in classroom settings. These projects require students to work in teams, applying their knowledge to real-world scenarios under the guidance of faculty mentors. The evaluation criteria include technical merit, innovation, teamwork, and presentation skills.

The final-year capstone project is a comprehensive endeavor that integrates all aspects of the student's academic journey. Students select a topic relevant to their specialization or an emerging area of interest, working closely with a faculty advisor throughout the process. The project involves extensive research, experimentation, design, and documentation.

Project selection occurs through a structured process that considers student interests, faculty expertise, and available resources. Students are encouraged to propose innovative ideas that align with current industry needs or emerging research areas. Faculty members provide guidance on feasibility, scope, and methodology, ensuring that projects are both challenging and achievable.

Evaluation of project work is conducted through multiple stages including proposal reviews, progress reports, peer evaluations, and final presentations. The final assessment includes a written report, oral defense, and demonstration of the implemented solution. This comprehensive evaluation ensures that students not only complete their projects successfully but also develop critical communication and presentation skills.