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+91 88943 57155
Pune, Maharashtra, India

Duration

4 Years

Welding

Government Polytechnic Ganai Gangoli
Duration
4 Years
Welding UG OFFLINE

Duration

4 Years

Welding

Government Polytechnic Ganai Gangoli
Duration
Apply

Fees

₹1,50,000

Placement

92.0%

Avg Package

₹5,50,000

Highest Package

₹8,50,000

OverviewAdmissionsCurriculumFeesPlacements
4 Years
Welding
UG
OFFLINE

Fees

₹1,50,000

Placement

92.0%

Avg Package

₹5,50,000

Highest Package

₹8,50,000

Seats

120

Students

120

ApplyCollege

Seats

120

Students

120

Curriculum

Course Structure Overview

The curriculum for the Welding program at Govt Polytechnic Ganai Gangoli is structured to provide a comprehensive and progressive learning experience. The entire program spans eight semesters, with each semester consisting of core subjects, departmental electives, science electives, and laboratory sessions.

SemesterCourse CodeCourse TitleCredit Structure (L-T-P-C)Prerequisite
1ENG101Engineering Mathematics I3-1-0-4-
1PHY101Physics for Engineers3-1-0-4-
1CHE101Chemistry for Engineering3-1-0-4-
1MAT101Materials Science Fundamentals3-1-0-4-
1CSE101Introduction to Computer Programming2-0-2-3-
1LAB101Basic Physics Lab0-0-3-1-
2ENG102Engineering Mathematics II3-1-0-4ENG101
2PHY102Applied Physics3-1-0-4PHY101
2CHE102Organic Chemistry3-1-0-4CHE101
2MAT102Metallurgy Principles3-1-0-4MAT101
2CSE102Data Structures and Algorithms3-0-2-4CSE101
2LAB102Chemistry Lab0-0-3-1-
3ENG201Engineering Mathematics III3-1-0-4ENG102
3PHY201Thermodynamics and Heat Transfer3-1-0-4PHY102
3CHE201Physical Chemistry3-1-0-4CHE102
3MAT201Welding Process Fundamentals3-1-0-4MAT102
3CSE201Database Management Systems3-0-2-4CSE102
3LAB201Physics Lab II0-0-3-1-
4ENG202Engineering Mathematics IV3-1-0-4ENG201
4PHY202Electromagnetic Fields and Waves3-1-0-4PHY201
4CHE202Chemical Kinetics and Catalysis3-1-0-4CHE201
4MAT202Advanced Welding Techniques3-1-0-4MAT201
4CSE202Computer Graphics and Visualization3-0-2-4CSE201
4LAB202Chemistry Lab II0-0-3-1-
5ENG301Engineering Mathematics V3-1-0-4ENG202
5PHY301Nuclear and Quantum Physics3-1-0-4PHY202
5CHE301Instrumental Analysis3-1-0-4CHE202
5MAT301Welding Metallurgy3-1-0-4MAT202
5CSE301Web Technologies and Mobile Apps3-0-2-4CSE202
5LAB301Metallurgy Lab0-0-3-1-
6ENG302Engineering Mathematics VI3-1-0-4ENG301
6PHY302Optics and Lasers3-1-0-4PHY301
6CHE302Biochemistry3-1-0-4CHE301
6MAT302Automated Welding Systems3-1-0-4MAT301
6CSE302Artificial Intelligence and Machine Learning3-0-2-4CSE301
6LAB302Welding Lab I0-0-3-1-
7ENG401Advanced Mathematics for Engineers3-1-0-4ENG302
7PHY401Biophysics and Medical Imaging3-1-0-4PHY302
7CHE401Polymer Chemistry3-1-0-4CHE302
7MAT401Quality Assurance in Welding3-1-0-4MAT302
7CSE401Cloud Computing and DevOps3-0-2-4CSE302
7LAB401Welding Lab II0-0-3-1-
8ENG402Research Methodology and Project Management3-1-0-4ENG401
8PHY402Relativity and Cosmology3-1-0-4PHY401
8CHE402Environmental Chemistry3-1-0-4CHE401
8MAT402Capstone Project in Welding Engineering3-1-0-4MAT401
8CSE402Distributed Systems and Networking3-0-2-4CSE401
8LAB402Final Year Project Lab0-0-3-1-

Advanced Departmental Elective Courses

These advanced electives are designed to deepen students' understanding of specialized aspects of welding technology and prepare them for leadership roles in the industry.

Automated Welding Systems: This course explores the integration of robotics and automation in welding processes. Students learn about industrial robot programming, sensor integration, and machine vision systems used in modern manufacturing environments. The course includes hands-on lab sessions where students design and implement automated welding solutions for specific applications.

Welding Metallurgy: Focusing on the metallurgical aspects of welding, this course covers topics such as phase diagrams, heat-affected zones, and microstructural changes during welding. Students gain insights into selecting appropriate welding materials based on mechanical properties and environmental conditions.

Non-Destructive Testing (NDT): This course teaches students various NDT methods including ultrasonic testing, radiographic testing, and magnetic particle inspection. Practical sessions involve using industry-standard equipment to detect flaws in welded joints and assess structural integrity.

Quality Assurance in Welding: Students learn about quality control standards, certification processes, and compliance with international codes such as ASME, AWS, and ISO. The course emphasizes statistical process control and root cause analysis techniques used in welding environments.

Welding in Renewable Energy Systems: This elective explores how welding technology contributes to renewable energy infrastructure including wind turbines, solar panels, and hydroelectric plants. Students study the challenges and innovations involved in fabricating large-scale renewable energy components.

Digital Twin Technology for Welding: In this course, students learn to create digital replicas of physical welding systems using simulation software. These models are used to optimize welding parameters, predict outcomes, and enhance process efficiency.

Sustainable Practices in Metal Fabrication: This course addresses environmental impact reduction through sustainable practices in metal fabrication. Topics include recycling strategies, energy-efficient processes, and eco-friendly material selection.

Nanotechnology Applications in Welding: Students explore how nanomaterials can improve weld performance and durability. The course covers synthesis techniques, characterization methods, and practical applications of nanotechnology in welding processes.

Structural Integrity and Failure Analysis: This course focuses on analyzing structural failures in welded components. Students learn to identify failure modes, conduct root cause investigations, and propose preventive measures using advanced analytical tools.

Advanced Materials and Welding Processes: This elective introduces students to emerging materials such as composites, ceramics, and high-temperature alloys. The course covers specialized welding techniques required for these materials and their applications in aerospace and automotive industries.

Project-Based Learning Philosophy

The department strongly believes that project-based learning is essential for developing practical skills and critical thinking abilities. Projects are assigned at different stages of the program, starting with small-scale experiments and progressing to complex capstone projects.

Mini-projects (Semesters 3-4) allow students to apply theoretical knowledge in laboratory settings. These projects are typically completed in teams and must be submitted within a specified timeframe. Evaluation criteria include technical accuracy, presentation quality, and teamwork skills.

The final-year thesis/capstone project is a significant component of the program. Students select topics aligned with their interests or industry needs and work closely with faculty mentors throughout the process. The project culminates in a formal presentation and a detailed written report that demonstrates mastery of the subject matter.

Faculty members guide students through each stage of project development, from initial concept formation to final implementation. Regular meetings ensure progress tracking and timely feedback, promoting continuous improvement and innovation.