BE Mechanical
| COURSE CODE | COURSE NAME | COURSE OUTCOMES |
|---|---|---|
| 402041 | Heating,Ventilation,Air Conditioning and Refrigeration | 1. ANALYSE different air-craft refrigeration systems and EXPLAIN the properties, applications and environmental issues of different refrigerants. |
| 2. ANALYSE multi pressure refrigeration system used for refrigeration applications | ||
| 3. DISCUSS types of compressors, condensers, evaporators and expansion valves along with regulatory and safety controls and DESCRIBES Transcritical and ejector refrigeration systems |
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| 4. ESTIMATE cooling load for air conditioning systems used with concern of design conditions and indoor quality of air. |
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| 5. DESIGN air distribution system along with consideration of ventilation and infiltration | ||
| 6 EXPLAIN the working of types of desiccants, evaporative, thermal storage, radiant cooling, clean room and heat pump systems. |
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| 402042 | Dynamics of Machinery | 1. APPLY balancing technique for static and dynamic balancing of multi cylinder inline and radial engines. |
| 2. ANALYZE the gyroscopic couple or effect for stabilization of Ship, Airplane and Four wheeler vehicles. |
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| 3. ESTIMATE natural frequency for single DOF un-damped & damped free vibratory systems |
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| 4 DETERMINE response to forced vibrations due to harmonic excitation, base excitation and excitation due to unbalance forces. |
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| 5. .ESTIMATE natural frequencies, mode shapes for 2 DOF un-damped free longitudinal and torsional vibratory systems. |
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| 6. .DESCRIBE noise and vibration measuring instruments for industrial / real life applications along with suitable method for noise and vibration control. |
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| 402043 | Turbomachinery | 1. VALIDATE impulse moment principle using flat, inclined and curved surfaces and INVESTIGATE performance characteristics of hydraulic turbines. |
| 2. DETERMINE performance parameters of impulse and reaction steam turbine along with discussion of nozzles, governing mechanism & losses. |
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| 3. MEASURE performance parameters of single & multistage centrifugal pumps along with discussion of cavitation and selection. |
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| 4. EXPLAIN performance parameters of centrifugal compressor along with discussion of theoretical aspects of axial compressor. |
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| 402046 | Data Analytics Laboratory | 1. UNDERSTAND the basics of data analytics using concepts of statistics and probability. |
| 2. APPLY various inferential statistical analysis techniques to describe data sets and withdraw useful conclusions from acquired data set. |
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| 3. EXPLORE the data analytics techniques using various tools | ||
| 4. :APPLY data science concept and methods to solve problems in real world context | ||
| 5. :SELECT advanced techniques to conduct thorough and insightful analysis and interpret the results |
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| 402047 | Project (Stage-I) | 1. Implement systems approach. |
| 2. To conceptualize a novel idea / technique into a product. | ||
| 3. To think in terms of a multi-disciplinary environment. | ||
| 4. To take on the challenges of teamwork, and document all aspects of design work. | ||
| 5. To understand the management techniques of implementing a project. | ||
| 402048 | Computer Integrated Manufacturing | 1. EXPLAIN CIM and factory automation. |
| 2. UNDERSTAND the integration of hardware and software elements for CIM | ||
| 3. APPLY CNC program for appropriate manufacturing techniques. | ||
| 4. ANALYZE processes planning, quality and MRP integrated with computers. | ||
| 5. INTERPRET flexible, cellular manufacturing and group technology. | ||
| 6. ANALYZE the effect of IOT, Industry-4.0 and cloud base manufacturing. | ||
| 402049 | Energy Engineering |
1. EXPLAIN the power generation scenario, the layout components of thermal power plant and ANALYZE the improved Rankine cycle. |
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2. ANALYZE the performance of steam condensers, cooling tower system; RECOGNIZE an environmental impact of energy systems and methods to control the same. |
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| 3. EXPLAIN the layout, component details of diesel engine plant, hydel and nuclear energy systems. | ||
| 4. ANALYZE gas and improved power cycles. | ||
| 5. EXPLAIN the fundamentals of renewable energy systems. | ||
| 6. EXPLAIN basic principles of energy management, storage and economics of power generation. | ||
| 402052 | Mechanical System Analysis Laboratory |
1. DEVELOP an understanding of the Systems Engineering Process and the range of factors that influence the product need, problem- specific information collection, Problem Definition, Task Specification, Solution Concept inception, Concept Development, System’s Mathematical Modelling, Synthesis, Analysis, final solution Selection, Simulation, Detailed Design, Construction, Prototyping, Testing, fault-finding, Diagnosis, Performance Analysis, and Evaluation, Maintenance, Modification, Validation, Planning, Production, Evaluation and use of a system using manual calculation, computational tools to automate product development process, redesign from customer feedback and control of technological systems. |
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2. ILLUSTRATE the concepts and USE the developed skill-set of use of computational tools (FEA, CFD, MBD, FSI, CAE) to automate the complete product development process. |
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3. EVALUATE the knowledge of new developments and innovations in technological systems to carry forward to next stage of employment after passing your Undergraduate Degree Examination. |
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4. APPRAISE how technologies have transformed people’s lives and can be used to SOLVE challenges associated with climate change, efficient energy use, security, health, education and transport,which will be coming your ways in the coming future. |
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| 5. PRIORITIZE the concept of quality and standards, including systems reliability, safety and fitness for the intended purpose. | ||
| 6. INVENT yourself to face the challenges of future technologies and their associated Problems | ||
| 402053 | Project (Stage-II) | 1. Implement systems approach. |
| 2. To conceptualize a novel idea / technique into a product. | ||
| 3. To think in terms of a multi-disciplinary environment. | ||
| 4. To take on the challenges of teamwork, and document all aspects of design work. | ||
| 5. To understand the management techniques of implementing a project. |
TE Mechanical
T.E Mechanical (2024 pattern)
| Sem I | ||
|---|---|---|
| Course | Course Code | Course Outcomes |
| Heat & Mass Transfer | PCC301-MEC | Explain fundamental heat transfer mechanisms and analyze heat conduction in engineering systems. |
| Analyze fins, insulation systems, and transient heat conduction problems. | ||
| Apply convection heat transfer principles and empirical correlations to determine heat transfer rates. | ||
| Analyze radiation heat exchange between surfaces and thermal systems. | ||
| Evaluate the performance of heat exchangers using LMTD and NTU methods | ||
| Theory of Machines | PCC302-MEC: | APPLY kinematic concepts to analyze mechanisms used in engineering applications |
| ANALYZE displacement, velocity, and acceleration of mechanisms using analytical and graphical methods. | ||
| DESIGN and SYNTHESIZE mechanisms for specified motion and path generation problems | ||
| ANALYZE gear systems and APPLY kinematic principles in power transmission applications | ||
| DESIGN cam profiles for required follower motion considering practical constraints | ||
| Design of Machine Elements | PCC303-MEC | DESIGN levers and components subjected to eccentric loading by selecting appropriate material. |
| DESIGN shafts, keys and couplings under different loading conditions. | ||
| EVALUATE the stresses developed in the different type of welded and threaded joints. | ||
| APPLY the design procedure for different types of springs and EVALUATE dimensions of machine components under fluctuating loads. | ||
| ANALYZE different stresses developed in power screws and APPLY those in the procedure to design screw jack. | ||
| Manufacturing Process-II | PCC304-MEC | DECIDE the appropriate cutter, method for gear cutting and able to DETERMINE the cutting parameter using indexing method. |
| CATEGORIZE the polymer process according to product and able to DEVELOP concept for composite fabrication. | ||
| DETERMINE the suitable modern machining process for particular application and EXAMINE the material removal rate. | ||
| CLASSIFY the different 3D printing techniques and able to DEVELOP a product by using the 3D printing techniques. | ||
| DESIGN and DEVELOP the jig or fixture according to need of the component used in machining. | ||
| Digital Manufacturing Laboratory | PCC305-MEC | DEMONSTRATE the use of conventional and digital measuring instruments for linear and angular measurements and evaluate component dimensions. |
| ANALYZE and DETERMINE the geometry and dimensions of components using advanced measurement systems such as optical projectors and Coordinate Measuring Machine | ||
| APPLY statistical process control techniques by constructing and interpreting control charts using suitable software tools | ||
| DEVELOP and VALIDATE CNC part programs using G and M codes and APPLY CNC simulation tools for machining operations. | ||
| PERFORM CNC machining of components with proper process planning, tolerances, and manufacturing drawings | ||
| APPLY Additive Manufacturing and Digital Manufacturing tools for process simulation and ANALYZE production systems including bottleneck identification, with understanding of Digital Twin and Smart Manufacturing concepts. | ||
| Metrology and Quality Control | MDM 331-MEC | APPLY principles of metrology, calibration and measurement uncertainty in engineering applications |
| UNDERSTAND and USE advanced metrology systems like CMM and non-contact measurement techniques for inspection | ||
| IMPLEMENT quality tools and methodologies for continuous improvement | ||
| ANALYZE process performance using statistical quality control and sampling techniques | ||
| APPLY advanced quality engineering tools such as FMEA, Lean Six Sigma, and digital quality systems | ||
| Smart Mechatronics Systems | MDM 332-MEC | MODEL and ANALYZE mechanical systems using mathematical and simulation tools. |
| DEMONSTRATE closed-loop control systems. | ||
| IMPLEMENT and TUNE PID controllers for dynamic systems. | ||
| DEVELOP PLC programs for industrial automation applications | ||
| ACQUIRE and VISUALIZE data using data acquisition systems | ||
| Industrial Fluid Power Lab | MDM 333-MEC | Identify and interpret symbols and specifications of hydraulic and pneumatic components as per ISO/IS/JIC standards. |
| Assemble and demonstrate basic hydraulic and pneumatic circuits for speed, pressure, and sequence control applications. | ||
| Conduct experiments to evaluate performance characteristics of pumps and control valves and analyze the results. | ||
| Design and simulate electro-hydraulic and electro-pneumatic circuits using manufacturer catalogues and software tools. | ||
| Implement basic automation and IoT-based control for fluid power systems and document experimental findings professionally. | ||
| Product Costing for Mechanical Engineering | OLE341 | Understand product costing fundamentals,classify different cost elements and interpret engineering drawings and BOM for cost estimation |
| Estimate material and manufacturing process costs for various processes such as machining, Sheet Metal, Casting , welding and Plastics. | ||
| Apply Process planning, Labour costing, overhead allocation, and calculate machine hour rate for accurate cost evaluation. | ||
| Analyze and optimize product cost using advanced costing techniques, design to cost Principles and industrial practices including quotation and cost reduction. | ||
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Materials and Logistics
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OLE341 | Explain the functions and importance of materials management in manufacturing systems |
| Apply inventory control and purchasing techniques for efficient metal management. | ||
| Analyse logistics operations including warehousing, transportation and distribution. | ||
| Developed strategies for efficient material flow and integrated supply chain management. | ||
| Computer Integrated Manufacturing | PCC351-MEC | EXPLAIN the core concepts, evolution, and components of CIM and factory automation. |
| ANALYZE the role of hardware and software elements and their integration within a CIM environment. | ||
| DEVELOP and SIMULATE CNC programs, understanding their integration with CAM, robotics, and material handling systems. | ||
| EVALUATE integrated systems for process planning, quality control (CAI/SPC), and enterprise resource planning (ERP/MES). | ||
| ASSESS the implications of Industry 4.0/5.0 technologies, including digital twins, IIoT, and sustainable manufacturing practices. | ||
| Refrigeration & Air-conditioning | PCC352-MEC | Analyze performance of vapour compression and vapour absorption refrigeration systems. |
| Evaluate and design multi-pressure and cascade refrigeration systems. | ||
| Select and analyze refrigeration system components and advanced refrigeration technologies | ||
| Perform psychrometric analysis and estimate cooling loads for air conditioning applications. | ||
| Design ventilation systems, duct layouts, and evaluate modern HVAC systems. | ||
| Transmission System Design | PCC353-MEC | APPLY the principle of Spur & Helical gear design for industrial application. |
| DESIGN Bevel & Worm gear considering design parameters as per design standards. | ||
| SELECT Rolling and Sliding Contact Bearings from manufacturer’s catalogue for a typical application considering suitable design parameters. | ||
| DESIGN and ANALYZE various types of Clutches, Brakes, used in automobile. | ||
| ELABORATE various modes of operation, degree of hybridization in hybrid electric vehicles. | ||
| Thermal and Fluid systems (HVAC & Turbomachines) | PCC354-MEC | Conduct experiments on HVAC systems and analyze performance parameters such as COP, cooling capacity, and efficiency. (Analyze) |
| Evaluate performance characteristics of pumps and hydraulic turbines by determining head, discharge, power, and efficiency. (Evaluate) | ||
| Apply thermodynamics and fluid mechanics principles to analyze and interpret experimental data of thermal and fluid systems. (Apply) | ||
| Assess energy efficiency and sustainability aspects in HVAC and turbomachinery systems, including green technologies and renewable energy applications. (Evaluate) | ||
| Use modern engineering tools and investigate real-life applications of thermal and fluid systems through experiments, case studies, and industrial visits. (Analyze) | ||
| Engineering Simulation and Analysis | MDM 371-MEC | Analyze stress analysis problems of 1D bar and truss elements using FEA software. |
| Evaluate stress concentration factors, stresses, and deflections in machine components with geometric discontinuities and complex 3D geometries using FEA software. | ||
| Interpret results from modal analysis—understanding natural frequencies, mode shapes, and their physical significance—to make informed vibration-related design decisions. | ||
| Implement submodeling techniques to perform refined localized analysis of critical regions within a mechanical system and justify the choice of boundary conditions. | ||
| Analyze steady-state heat transfer analysis through composite structures and coupled thermal structural Analysis to assess thermomechanical behavior of engineering components. | ||
| Industrial Robotics | MDM 372-MEC | Explain the fundamentals of industrial robotics, robot classifications, specifications, and applications observed in real industrial environments. |
| Apply knowledge of robot anatomy, drive systems, and end effectors to analyze and propose suitable configurations for industrial tasks. | ||
| Analyze the role of sensors, vision systems, and safety mechanisms in robotic systems and evaluate their effectiveness in industrial applications. | ||
| Develop and execute basic robot programs and simulations for industrial operations such as pick-and-place and path planning. | ||
| Design and evaluate a complete robotic work cell by integrating robot selection, layout planning, cycle time analysis, and safety considerations. | ||
| Solar Technology and Maintenance |
VSE 372 |
Apply safe installation, wiring, commissioning, and performance measurement of basic solar PV systems |
| Analyze the impact of environmental/operational factors on solar PV efficiency and diagnose common faults. | ||
| Evaluate the effectiveness of maintenance and troubleshooting procedures for solar PV components and systems. | ||
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Create simple practical solutions or documentation for improving solar system performance via mini-projects. |
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| Hydraulic and pneumatics | PEC 361C-MEC | Apply basic fluid power principles and analyze hydraulic systems. |
| Identify and select various components for hydraulic power systems | ||
| Identify various control valves and auxiliaries used in fluid power systems | ||
| Identify and select various components and circuits for pneumatic power systems | ||
| Design a system according to the requirements | ||
| Industrial Engineering | PEC 361D-MEC | EVALUATE the productivity and various productivity improvement techniques. |
| APPLY work study techniques and with its importance for better productivity. | ||
| DEMONSTRATE the ability to SELECT plant location, appropriate layout and material handling equipment. | ||
| IDENTIFY various Production planning and control tools for effective planning, scheduling and managing the shop floor control. | ||
| UNDERSTAND inventory requirements for effective control on manufacturing requirements. | ||
| Product Design and Development | PEC 361A-MEC | Explain and Apply the fundamentals of product design and development process, including design phases, planning, and product lifecycle considerations. |
| Analyze market requirements by conducting customer need analysis, market survey, and formulate product specifications based on Voice of Customer (VoC). | ||
| Generate, Evaluate, and select product concepts and develop product architecture using systematic design methodologies. | ||
| Apply reverse engineering, competitive benchmarking, and optimization techniques to improve existing product designs. | ||
| Implement Design for X (DfX) principles, prototyping methods, and product lifecycle management (PLM) strategies in product development. | ||
| Advanced Machining Processes | PEC 361D-MEC | Classify various special forming processes |
| Identify applicability of advanced joining processes. | ||
| Understand the basic mechanisms of hybrid non-conventional machining techniques. | ||
| Select appropriate micro and nano fabrication techniques for engineering applications. | ||
| Understand various sustainable machining techniques for product development. | ||
T.E Mechanical Sandwich (2024 pattern)
| Sem I | ||
|---|---|---|
| Course | Course Code | Course Outcomes |
| Heat & Mass Transfer | PCC301-MSW | Explain fundamental heat transfer mechanisms and analyze heat conduction in engineering systems. |
| Analyze fins, insulation systems, and transient heat conduction problems. | ||
| Apply convection heat transfer principles and empirical correlations to determine heat transfer rates. | ||
| Analyze radiation heat exchange between surfaces and thermal systems. | ||
| Evaluate the performance of heat exchangers using LMTD and NTU methods | ||
| Kinematics of Machinery | PCC302-MSW | APPLY kinematic concepts to analyze mechanisms used in engineering applications |
| ANALYZE displacement, velocity, and acceleration of mechanisms using analytical and graphical methods. | ||
| DESIGN and SYNTHESIZE mechanisms for specified motion and path generation problems | ||
| ANALYZE gear systems and APPLY kinematic principles in power transmission applications | ||
| DESIGN cam profiles for required follower motion considering practical constraints | ||
| Machine Design | PCC303-MSW | DESIGN levers and components subjected to eccentric loading by selecting appropriate material. |
| DESIGN shafts, keys and couplings under different loading conditions. | ||
| EVALUATE the stresses developed in the different type of welded and threaded joints. | ||
| APPLY the design procedure for different types of springs and EVALUATE dimensions of machine components under fluctuating loads. | ||
| ANALYZE different stresses developed in power screws and APPLY those in the procedure to design screw jack. | ||
| Manufacturing Engineering-II | PCC304-MSW | DEFINE metal cutting principles and mechanics of metal cutting and tool life. |
| DESCRIBE features of gear and thread manufacturing processes. | ||
| SELECT appropriate grinding wheel and demonstrate the various surface finishing processes. | ||
| GENERATE CNC program for Turning / Milling processes and generate tool path using CAM software. | ||
| SELECT appropriate jigs/fixtures and to draw the process plan for a given component. | ||
| Machine Design Lab | PCC305-MSW | ANALYZE mechanisms using graphical methods. |
| APPLY kinematic principles for motion analysis and synthesis. | ||
| DESIGN machine elements based on strength and functional requirements. | ||
| INTEGRATE analysis and design concepts for real-world applications. | ||
| DEMONSTRATE working models or simulations of mechanical systems. | ||
| Digital Manufacturing & MQC Lab | PCC306-MSW | DEMONSTRATE the use of conventional and digital measuring instruments for linear and angular measurements and evaluate component dimensions. |
| ANALYZE and DETERMINE the geometry and dimensions of components using advanced measurement systems such as optical projectors and Coordinate Measuring Machine | ||
| APPLY statistical process control techniques by constructing and interpreting control charts using suitable software tools | ||
| DEVELOP and VALIDATE CNC part programs using G and M codes and APPLY CNC simulation tools for machining operations. | ||
| IDENTIFY surface patterns/ flatness of given specimens by using optical flat. | ||
| COMPILE the information of opportunities of entrepreneurships/business in various sectors of metrology like calibrations, testing, coordinate and laser metrology etc in an industry visit report. | ||
| Smart Mechatronics Systems | MDM 331 -MSW | DEFINE key elements of mechatronics, principle of sensor and its characteristics. |
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UTILIZE concept of signal processing and MAKE use of interfacing systems such as ADC, DAC, Digital I/O. |
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| DETERMINE the transfer function by using block diagram reduction technique. | ||
| APPLY the concept of different controller modes to an industrial application. | ||
| DEVELOP the ladder programming for industrial application. | ||
| Engineering Simulation and Analysis | MDM 332-MSW | Analyze stress analysis problems of 1D bar and truss elements using FEA software. |
| Evaluate stress concentration factors, stresses, and deflections in machine components with geometric discontinuities and complex 3D geometries using FEA software. | ||
| Interpret results from modal analysis—understanding natural frequencies, mode shapes, and their physical significance—to make informed vibration-related design decisions. | ||
| Implement submodeling techniques to perform refined localized analysis of critical regions within a mechanical system and justify the choice of boundary conditions. | ||
| Analyze steady-state heat transfer analysis through composite structures and coupled thermal structural Analysis to assess thermomechanical behavior of engineering components. | ||
| Heat and Mass Transfer Lab | MDM 333-MSW | Explain fundamental heat transfer mechanisms and analyze heat conduction in engineering systems. |
| Analyze fins, insulation systems, and transient heat conduction problems. | ||
| Apply convection heat transfer principles and empirical correlations to determine heat transfer rates. | ||
| Analyze radiation heat exchange between surfaces and thermal systems. | ||
| Evaluate the performance of heat exchangers using LMTD and NTU methods | ||
| Product Costing for Mechanical Engineering | OLE341 | Understand product costing fundamentals,classify different cost elements and interpret engineering drawings and BOM for cost estimation |
| Estimate material and manufacturing process costs for various processes such as machining, Sheet Metal, Casting , welding and Plastics. | ||
| Apply Process planning, Labour costing, overhead allocation, and calculate machine hour rate for accurate cost evaluation. | ||
| Analyze and optimize product cost using advanced costing techniques, design to cost Principles and industrial practices including quotation and cost reduction. | ||
|
Materials and Logistics
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OLE341 | Explain the functions and importance of materials management in manufacturing systems |
| Apply inventory control and purchasing techniques for efficient metal management. | ||
| Analyse logistics operations including warehousing, transportation and distribution. | ||
| Developed strategies for efficient material flow and integrated supply chain management. | ||
| Industrial In-plant Training-I | PCC307MSW | To UNDERSTAND industrial practices and technical details followed in industry. |
| To ANALYZE and SOLVE engineering problems by applying engineering knowledge with teamwork and multidisciplinary approach. | ||
| Industrial Mini-Project | PCC308MSW | To IDENTIFY specific areas for improvement in industry with better understanding |
| To DEVELOP and IMPLEMENT systematic approach to solve specific industrial problem. | ||
| To DEVELOP methodology for providing solution to industrial problems with teamwork and multidisciplinary approach | ||
| To UNDERSTAND and IMPLEMENT basic principles of project management. | ||
| To SOLVE and ANALYZE industrial problems. | ||
| To PRESENT outcome and details of project work with effective presentation skills. | ||
| Seminar | PCC309MSW | Read and UNDERSTAND recent trends and technologies in the area of mechanical engineering. |
| RECOGNIZE problems after doing research literature survey using various resources. | ||
| PREPARE concise, COMPREHEND and conclude selective topic in area of mechanical engineering | ||
| MAKE use of new and recent technology (e.g. Latex) for creating technical reports | ||
| Process Planning & Tool Selection | PCC310MSW | INTERPRET and ANALYSE Part print of an industrial component. |
| ILLUSTRATE the meaning of geometric dimensions and understand the tolerance chart. | ||
| UNDERSTAND Principles of location and clamping and ESTABLISH suitable manufacture sequence. | ||
| SELECT appropriate equipment and tooling requirements. | ||
| ESTIMATE the total unit time per piece for a component in mass production. | ||
| DESIGN of Process picture sheet and operation route sheet on GPM for batch production or a special purpose machine for mass production | ||
| Advanced Materials & Manufacturing | PCC311MSW | DEFINE & COMPARE composites with traditional materials. |
| IDENTIFY & ESTIMATE different parameters of the Polymer Matrix Composite | ||
| CATEGORISE and APPLY Metal Matrix Process from possessions landscape. | ||
| ASSESS the parameters for special forming operation and SELECT appropriate special forming operation for particular applications. | ||
| CLASSIFY various advanced welding processes and SELECT suitable welding processes for particular applications. | ||
| COMPREHEND various non-conventional machining processes and SELECT suitable processes for particular applications. | ||
SE Mechanical
SY B Tech Mechanical (2025 pattern)
| Sem I | ||
|---|---|---|
| Course | Course Code | Course Outcomes |
| Strength of Materials | 25MEPCC201 | Explain the fundamental concepts of stress, strain, and mechanical properties of materials |
| Calculate and analyse internal forces and moments in structural members using free-body diagrams | ||
| Compute the bending stresses and shear stresses on a beam. | ||
| Analyze torsional stresses in shafts and determine critical buckling load of columns for different end conditions. | ||
| Determine strain energy, impact stresses, and stresses in thin cylinders. | ||
| Thermal & Fluid Engineering | 25MEPCC202 | Explain thermodynamic concepts, laws, and processes, and apply the first and second laws of thermodynamics to analyze simple closed and open systems, heat engines, refrigerators, and irreversibilities. |
| Explain entropy and availability concepts and evaluate entropy changes of closed and open systems, including ideal gas processes. | ||
| Analyze steam properties, use steam tables and Mollier charts, determine dryness fraction, and evaluate boiler performance through efficiency, equivalent evaporation, and heat balance calculations. | ||
| Explain fluid properties and static laws and apply Bernoulli’s equation to solve numerical problems involving manometers, viscosity, and Venturimeter. | ||
| Analyze laminar internal flow and external boundary layer flow, and solve numerical problems related to boundary layer thickness, displacement thickness, momentum thickness, and energy thickness. | ||
| Manufacturing Processes | 25MEPCC203 | DESIGN gating systems, risers, and ANALYZE casting defects for efficient metal casting processes. |
| COMPUTE forces, power, and deformation in rolling, forging, and sheet metal operations. | ||
| Understand Basic Plastic component manufacturing Process and its applications | ||
| COMPARE welding techniques, interpret weld symbols, and EVALUATE defects for quality joining. | ||
| SELECT appropriate grinding and finishing processes based on surface finish requirements | ||
| Multidisciplinary Minor-I (Fundamentals of Artificial Intelligence and Machine Learning ) | 25AIMDM201D | DEMONSTRATE fundamentals of artificial intelligence and machine learning. |
| APPLY feature extraction and selection techniques | ||
| APPLY machine learning algorithms for classification and regression problems | ||
| EXPLAIN concepts of unsupervised and reinforced learning. | ||
| ANALYZE the structure and learning mechanisms of artificial neural networks and interpret their applications in mechanical engineering systems. | ||
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Open Elective I (25OEC201A) Principles of Management and Organizational Behaviour
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25OEC201A | Explain core management functions and classical as well as modern management theories. |
| Analyze individual behaviour, personality, perception, and motivation in organizational settings. | ||
| Apply capital budgeting methods for evaluating engineering investment decisions. | ||
| Evaluate cost of capital and capital structure decisions. | ||
| Apply working capital and financial planning concepts for engineering projects. | ||
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Open Elective I (25OEC201B) Circular Economy for Sustainable Development |
25OEC201B | Explain the fundamental principles of circular economy and sustainable development, and differentiate between linear and circular economic systems. |
| Analyse global environmental challenges and evaluate the role of Sustainable Development Goals (SDGs) in addressing sustainability issues. | ||
| Apply life cycle thinking, material flow analysis, and resource efficiency tools to assess environmental impacts of products and processes | ||
| Design and evaluate circular business models incorporating strategies such as reuse, recycling, remanufacturing, and extended producer responsibility. | ||
| Assess sustainability policies, governance mechanisms, and technological interventions to propose practical solutions for sustainable development. | ||
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Open Elective I (25OEC201C) Start-up Management &Venture Creation |
25OEC201C | Explain concepts, types, and lifecycle stages of start-ups and new ventures. |
| Identify and analyze start up opportunities using market and customer discovery tools. | ||
| Develop suitable business models and assess technical and financial feasibility of ventures. | ||
| Apply knowledge of funding, legal, IPR, and government policies for startup creation. | ||
| Prepare and present a startup business plan demonstrating teamwork, communication, ethics, and lifelong learning. | ||
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Open Elective I (25OEC201D) Health and Nutrition for Professionals |
25OEC201D | Explain the basic concepts of health and nutrition. |
| Understand nutritional requirements and balanced diet. | ||
| Identify lifestyle diseases and preventive measures. | ||
| Apply principles of healthy living and stress management. | ||
| Analyze the role of nutrition in improving professional productivity | ||
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Open Elective I (25OEC201E) French Language Module-I |
25OEC201E | Identify basic French vocabulary and pronunciation. |
| Use simple French expressions for self-introduction and basic interactions. | ||
| Read and write simple French sentences. | ||
| Communicate in familiar everyday situations using basic French. | ||
| Demonstrate awareness of French culture and etiquette. | ||
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Open Elective I (25OEC201F) German Language Module-I |
25OEC201F | Identify basic German vocabulary and pronunciation. |
| Use simple German expressions for basic communication. | ||
| Read and write elementary German sentences. | ||
| Apply common German phrases in everyday situations. | ||
| Demonstrate awareness of German culture and traditions. | ||
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Open Elective I (25OEC201G) Japanese Language Module-I |
25OEC201G | Identify basic Japanese pronunciation, scripts, and vocabulary. |
| Use simple Japanese expressions for basic communication. | ||
| Read and write basic Japanese characters and sentences. | ||
| Participate in elementary conversations using simple Japanese expressions. | ||
| Demonstrate awareness of Japanese culture and etiquette. | ||
| Strength of Materials Laboratory | 25MEPCC201L | Conduct tensile, compression, torsion, shear, and bending tests and interpret the stress–strain behavior of materials. |
| Determine mechanical properties such as Young’s modulus, shear modulus, yield strength, and spring stiffness from experimental data. | ||
| Apply IS and ASTM standards while performing material testing experiments. | ||
| Measure strain using strain gauges and compare experimental results with theoretical values. | ||
| Correlate laboratory results with real-life engineering components such as beams, shafts, columns, and springs. | ||
| Thermal & Fluid Engineering Laboratory | 25MEPCC202L | Explain and apply the principles of Joule’s experiment, heat transfer, and steam properties in thermal engineering applications. |
| Identify and use various temperature sensors, viscometers, calorimeters, and flow measurement devices used in thermal and fluid systems. | ||
| Evaluate boiler performance parameters such as boiler efficiency, equivalent evaporation, dryness fraction, and heat balance. | ||
| Analyze fluid flow systems by determining major and minor losses in pipelines and verifying modified Bernoulli’s equation. | ||
| Correlate laboratory experiments with industrial practices in boilers, food processing plants, and automobile service stations, enhancing professional and practical competence | ||
| Intelligent Mechanical Systems Laboratory | 25MEPCC203L | Acquire and analyze engineering datasets using exploratory analysis techniques |
| Extract and select relevant features from engineering datasets to form effective training data for machine learning models. | ||
| Develop and evaluate classification and regression models for solving mechanical engineering problems. | ||
| Apply reinforcement learning and evolutionary optimization concepts to engineering system optimization | ||
| Apply artificial neural networks for parameter estimation, system identification, and tuning of control algorithms in mechanical engineering applications. | ||
| Workshop practices | 25MEVSE201 | IDENTIFY and ANALYZE safety standards and safety measures applicable to various sections of mechanical workshops and effectively communicate these through the preparation of informative posters or reports. |
| READ, INTERPRET Casting Process and its stages. | ||
| READ, INTERPRET, and ANALYZE industrial drawings by applying standard industrial practices to effectively communicate design and manufacturing intent. | ||
| UNDERSTAND and APPLY the principles of GD&T as well as INTERPRET surface finish and welding symbols to enhance design accuracy and manufacturability. | ||
| PLAN and EXECUTE the production of an assembly job by performing a sequence of machining operations while selecting appropriate materials and processes to meet functional and assembly requirements. | ||
| Entrepreneurship/Economics/ Management Course-I | 25HSM201 | Explain the fundamental concepts of entrepreneurship, economics, and management, and their role in industrial and business development. |
| Apply principles of economics and management to analyse business environments, resource utilisation, and organisational decision-making. | ||
| Analyse entrepreneurial opportunities by conducting market surveys, feasibility studies, and SWOT analysis for new business ventures. | ||
| Prepare a basic business plan incorporating marketing, finance, production, human resources, and legal aspects for a startup or small enterprise. | ||
| Demonstrate entrepreneurial competencies, ethical business practices, leadership, innovation, and effective communication for sustainable enterprise development. | ||
| Universal Human Values | 25VEC201 | Explain the concept of human values and self-exploration, and recognize their importance in personal life, professional life, and the role of engineers in society. |
| Understand the importance of sustainable development, environmental responsibility, and ecological balance, and evaluate the impact of technology on society and nature. | ||
| Apply values such as trust, respect, empathy, and responsibility to maintain harmony in family and society and practice ethical behavior in social interactions. | ||
| Demonstrate professional ethics, value-based decision making, leadership, and teamwork in engineering practice for the welfare of society. | ||
| Understand the relationship between self and body, differentiate their needs, and develop self-awareness and balanced lifestyle practices for personal well-being. | ||
| Community Engagement Project | 25ELC201 | Identify and analyze societal and community-based problems using systematic approaches. |
| Apply appropriate engineering or technological solutions to address community needs. | ||
| Demonstrate ethical behaviour, inclusiveness, and sustainability in community interventions. | ||
| Work effectively in multidisciplinary teams and communicate outcomes to stakeholders. | ||
| Reflect on learning experiences to develop self-learning and lifelong learning capabilities. | ||
| Sem II | ||
|---|---|---|
| Course | Course Code | Course Outcomes |
| Mathematical Foundation for Mechanical Engineering | 25MEPCC204 | SOLVE higher order linear differential equations and its applications to model and analyze mass spring systems. |
| APPLY Integral transform techniques such as Laplace transform and Fourier transform to solve differential equations involved in vibration theory, heat transfer and related mechanical engineering applications. | ||
| APPLY Statistical methods like correlation, regression in analyzing and interpreting experimental data applicable to reliability engineering. | ||
| APPLY Probability theory in testing and quality control. | ||
| PERFORM Vector differentiation & integration, ANALYZE the vector fields and APPLY to fluid flow problems. | ||
| IC Engines & Electric Vehicles | 25MEPCC205 | Explain the fundamentals of IC engines, engine components, valve timing, intake and exhaust systems, and analyze air-standard, fuel-air, and actual cycles. |
| Describe combustion in SI & CI engines, fuel injection systems, knocking, and alternative fuels | ||
| Analyze engine performance parameters, testing methods, emission formation, and control technologies | ||
| Explain engine subsystems and discuss recent trends such as EMS, HCCI, AI-based diagnostics | ||
| Explain EV architecture, motors, batteries, power electronics, charging systems, and safety | ||
| Engineering Materials and Metallurgy | 25MEPCC206 | Explain crystal structures, imperfections, and diffusion mechanisms in materials |
| Apply phase diagrams to analyze alloy behaviour and transformations | ||
| Evaluate mechanical properties using destructive and non-destructive testing methods | ||
| Understand heat treatment processes and their effects on microstructure and properties | ||
| Analyze and apply appropriate engineering materials for specific applications | ||
| Multidisciplinary Minor-II (Artificial Intellgence in Quality Control) | 25AIMDM202D | To understand the fundamentals of metrology and measurement system. |
| Apply statistical quality control tools such as control charts and process capability indices for process monitoring. | ||
| Analyze measurement and quality data using AI tools. | ||
| Apply machine learning models for error prediction and correction. | ||
| Implement AI-based solutions in smart manufacturing environments. | ||
|
Open Elective II (25OEC202A) Leadership and Team Dynamics |
(25OEC202A) | Explain leadership theories, organizational behaviour, and group dynamics concepts. |
| Apply communication and interpersonal skills in team environments. | ||
| Analyze leadership styles, group processes, and motivational approaches. | ||
| Evaluate team effectiveness, conflict management, ethics, and leadership challenges. | ||
| Develop leadership strategies for professional and global organizational environments. | ||
|
Open Elective II (25OEC202B) Green Practices & ESG Frameworks |
(25OEC202B) | Explain the concepts of sustainability, green practices, and ESG frameworks. |
| Analyse environmental impacts and adopt green technologies for sustainable development. | ||
| Evaluate social responsibility and stakeholder engagement practices in organizations. | ||
| Understand governance principles, ethical leadership, and regulatory frameworks. | ||
| Apply ESG reporting standards and sustainability assessment methods in industries. | ||
|
Open Elective II (25OEC202C) Innovation and Business Strategy |
(25OEC202C) | Explain concepts of innovation, creativity, and business strategy. |
|
Apply innovation management and strategic thinking tools for business problem-solving. Analyze business models, technology innovation, and entrepreneurial strategies. |
||
| Evaluate sustainability, intellectual property, and innovation management practices. | ||
| Develop innovative business solutions and strategic growth approaches. | ||
|
Open Elective II (25OEC202D) Stress Management and Mental Well Being |
(25OEC202D) | Explain the concepts of stress, mental health, and wellbeing |
| Identify sources of stress and analyse their impact | ||
| Apply stress management techniques | ||
| Demonstrate emotional intelligence and coping strategies | ||
| Design a personal wellbeing and stress management plan | ||
|
Open Elective II (25OEC202E) French Language Module-II |
(25OEC202E) | Use basic French expressions confidently. |
| Understand simple dialogues and instructions. | ||
| Read and write short paragraphs. | ||
| Participate in guided conversations. | ||
| Apply French in practical situations. | ||
|
Open Elective II (25OEC202F) French Language Module-II |
(25OEC202F) | Use beginner-level German expressions confidently. |
| Understand simple dialogues and instructions. | ||
| Read and write short passages. | ||
| Participate in practical conversations. | ||
| Apply German in everyday situations. | ||
|
Open Elective II (25OEC202G) Japanese Language Module-II |
(25OEC202G) | Communicate using beginner-level Japanese expressions. |
| Understand short dialogues and passages. | ||
| Read and write basic Japanese sentences | ||
| Participate in practical conversations. | ||
| Apply Japanese in everyday situations. | ||
| Metrology & Quality Control Laboratory | 25MEPCC204L | Identify various linear, angular, and surface measurement instruments and explain their working principles. |
| Demonstrate the use of precision instruments like micrometer, venire calipers, dial gauge, sine bar, slip gauges, and profile projector for dimensional inspection. | ||
| Perform calibration of instruments and machines to ensure accuracy and repeatability in measurements. | ||
| Apply statistical quality control tools (e.g., control charts, histograms, Cp/Cpk) for process evaluation. | ||
| Analyze measurement data, identify deviations, and suggest quality improvement strategies based on inspection outcomes. | ||
| IC Engines Laboratory | 25MEPCC205L | Conduct IC engine experiments to determine friction power, performance parameters, and thermal efficiencies using standard testing methods. |
| Prepare and analyze the heat balance sheet of an IC engine and evaluate various heat losses under different load conditions. | ||
| Identify and explain the construction and working of IC engine subsystems, including fuel injection, ignition, cooling, and lubrication systems. | ||
| Measure and interpret exhaust emissions (CO, HC, NOx, CO₂) and smoke density, and relate results to engine operating conditions and emission norms. | ||
| Explain the basic architecture and powertrain components of electric vehicles and relate laboratory knowledge to real-world automotive practices through industry exposure. | ||
| Material & Metallurgical Testing Laboratory | 25MEPCC206L | Apply appropriate destructive testing methods to evaluate hardness and impact strength of engineering materials. |
| Perform and interpret results of non-destructive testing techniques for defect detection in materials. | ||
| Prepare metallographic specimens and analyze microstructures of steels, cast irons, and non-ferrous metals | ||
| Correlate heat treatment processes with changes in microstructure and hardness of steels. | ||
| Demonstrate understanding of industrial material testing practices through industrial visits and technical reporting. | ||
| Solid Modeling & Drafting Laboratory | 25MEVSE202 | Demonstrate proficiency in Creo Parametric for sketching, part modeling, and assembly creation. |
| Create parametric and advanced machine components with accurate mass properties and material assignment. | ||
| Design sheet metal components and generate flat patterns for production. | ||
| Simulate mechanisms and motions, and perform basic structural, thermal, and modal analyses. | ||
| Prepare professional engineering drawings for parts and assemblies, including tolerances, GD&T, and BOMs. | ||
| Modern Indian Language | 25AEC201A | मराठी भाषेतील प्रगत भाषिक कौशल्यांचा प्रभावीपणे वापर करून संवाद साधू शकतील. |
| प्रसारमाध्यमांतील संज्ञापनाचे विविध प्रकार, स्वरूप व समाजातील त्यांचे स्थान स्पष्ट करू शकतील. | ||
| व्यक्तिमत्त्व विकासामध्ये भाषेचे महत्त्व ओळखून प्रभावी संवादकौशल्य विकसित करू शकतील. | ||
| लोकशाहीतील जीवनव्यवहार आणि प्रसारमाध्यमे यांतील परस्परसंबंधांचे विश्लेषण करू शकतील. | ||
| प्रसारमाध्यमांसाठी विविध प्रकारचे लेखन कौशल्य आत्मसात करून प्रभावी लेखन करू शकतील. | ||
| Modern Indian Language (Sanskrit) | 25AEC201B | Understand the basic structure, phonetics, and grammar of the sanskrit language. |
| Construct simple Sanskrit sentences using basic grammatical rules. | ||
| Interpret selected Sanskrit verses related to science, mathematics, and philosophy. | ||
| Recognize the contributions of ancient Indian scholars to science and engineering. | ||
| Appreciate the relevance of Sanskrit in modern fields such as computational linguistics, knowledge | ||
| Entrepreneurship/Economics/ Management Course-II | 25HSM202 | Explain the fundamental concepts of entrepreneurship, economics, and management, and their role in industrial and business development. |
| Apply principles of economics and management to analyse business environments, resource utilisation, and organisational decision-making. | ||
| Analyse entrepreneurial opportunities by conducting market surveys, feasibility studies, and SWOT analysis for new business ventures. | ||
| Prepare a basic business plan incorporating marketing, finance, production, human resources, and legal aspects for a startup or small enterprise. | ||
| Demonstrate entrepreneurial competencies, ethical business practices, leadership, innovation, and effective communication for sustainable enterprise development. | ||
|
Value Education Course (Indian Constitution and Governance) |
25VEC202 |
Explain the historical background, features, and structure of the Indian Constitution. |
| Describe Fundamental Rights, Directive Principles, and Fundamental Duties and their significance | ||
| Apply constitutional provisions to analyze the functioning of Union and State governments. | ||
| Analyze the role of constitutional and statutory bodies in Indian governance | ||
| Evaluate contemporary governance issues with reference to constitutional values and ethics. | ||
SY B Tech Mechanical Sandwich (2025 pattern)
| Sem I | ||
|---|---|---|
| Course | Course Code | Course Outcomes |
| Solid Mechanics | 25MSPCC201 | Explain the fundamental concepts of stress, strain, and mechanical properties of materials |
| Determine strain energy, impact stresses, and stresses in thin cylinders. | ||
| Calculate and analyse internal forces and moments in structural members using free-body diagrams | ||
| Compute the bending stresses and shear stresses on a beam. | ||
| Analyze torsional stresses in shafts and determine critical buckling load of columns for different end conditions. | ||
| Thermal & Fluid Engineering | 25MEPCC202 | Explain thermodynamic concepts, laws, and processes, and apply the first and second laws of thermodynamics to analyze simple closed and open systems, heat engines, refrigerators, and irreversibilities. |
| Explain entropy and availability concepts and evaluate entropy changes of closed and open systems, including ideal gas processes. | ||
| Analyze steam properties, use steam tables and Mollier charts, determine dryness fraction, and evaluate boiler performance through efficiency, equivalent evaporation, and heat balance calculations. | ||
| Explain fluid properties and static laws and apply Bernoulli’s equation to solve numerical problems involving manometers, viscosity, and Venturimeter. | ||
| Analyze laminar internal flow and external boundary layer flow, and solve numerical problems related to boundary layer thickness, displacement thickness, momentum thickness, and energy thickness. | ||
| Manufacturing Engineering | 25MSPCC203 | DESIGN gating systems, risers, and ANALYZE casting defects for efficient metal casting processes. |
| COMPUTE forces, power, and deformation in rolling, forging, and sheet metal operations. | ||
| Understand Basic Plastic component manufacturing Process and its applications | ||
| COMPARE welding techniques, interpret weld symbols, and EVALUATE defects for quality joining. | ||
| SELECT appropriate grinding and finishing processes based on surface finish requirements | ||
| Multidisciplinary Minor-I (Fundamentals of Artificial Intelligence and Machine Learning ) | 25AIMDM201D | DEMONSTRATE fundamentals of artificial intelligence and machine learning. |
| APPLY feature extraction and selection techniques | ||
| APPLY machine learning algorithms for classification and regression problems | ||
| EXPLAIN concepts of unsupervised and reinforced learning. | ||
| ANALYZE the structure and learning mechanisms of artificial neural networks and interpret their applications in mechanical engineering systems. | ||
|
Open Elective I (25OEC201A) Principles of Management and Organizational Behaviour
|
25OEC201A | Explain core management functions and classical as well as modern management theories. |
| Analyze individual behaviour, personality, perception, and motivation in organizational settings. | ||
| Apply capital budgeting methods for evaluating engineering investment decisions. | ||
| Evaluate cost of capital and capital structure decisions. | ||
| Apply working capital and financial planning concepts for engineering projects. | ||
|
Open Elective I (25OEC201B) Circular Economy for Sustainable Development |
25OEC201B | Explain the fundamental principles of circular economy and sustainable development, and differentiate between linear and circular economic systems. |
| Analyse global environmental challenges and evaluate the role of Sustainable Development Goals (SDGs) in addressing sustainability issues. | ||
| Apply life cycle thinking, material flow analysis, and resource efficiency tools to assess environmental impacts of products and processes | ||
| Design and evaluate circular business models incorporating strategies such as reuse, recycling, remanufacturing, and extended producer responsibility. | ||
| Assess sustainability policies, governance mechanisms, and technological interventions to propose practical solutions for sustainable development. | ||
|
Open Elective I (25OEC201C) Start-up Management &Venture Creation |
25OEC201C | Explain concepts, types, and lifecycle stages of start-ups and new ventures. |
| Identify and analyze start up opportunities using market and customer discovery tools. | ||
| Develop suitable business models and assess technical and financial feasibility of ventures. | ||
| Apply knowledge of funding, legal, IPR, and government policies for startup creation. | ||
| Prepare and present a startup business plan demonstrating teamwork, communication, ethics, and lifelong learning. | ||
|
Open Elective I (25OEC201D) Health and Nutrition for Professionals |
25OEC201D | Explain the basic concepts of health and nutrition. |
| Understand nutritional requirements and balanced diet. | ||
| Identify lifestyle diseases and preventive measures. | ||
| Apply principles of healthy living and stress management. | ||
| Analyze the role of nutrition in improving professional productivity | ||
|
Open Elective I (25OEC201E) French Language Module-I |
25OEC201E | Identify basic French vocabulary and pronunciation. |
| Use simple French expressions for self-introduction and basic interactions. | ||
| Read and write simple French sentences. | ||
| Communicate in familiar everyday situations using basic French. | ||
| Demonstrate awareness of French culture and etiquette. | ||
|
Open Elective I (25OEC201F) German Language Module-I |
25OEC201F | Identify basic German vocabulary and pronunciation. |
| Use simple German expressions for basic communication. | ||
| Read and write elementary German sentences. | ||
| Apply common German phrases in everyday situations. | ||
| Demonstrate awareness of German culture and traditions. | ||
|
Open Elective I (25OEC201G) Japanese Language Module-I |
25OEC201G | Identify basic Japanese pronunciation, scripts, and vocabulary. |
| Use simple Japanese expressions for basic communication. | ||
| Read and write basic Japanese characters and sentences. | ||
| Participate in elementary conversations using simple Japanese expressions. | ||
| Demonstrate awareness of Japanese culture and etiquette. | ||
| Solid Mechanics Laboratory | 25MSPCC201L | Conduct tensile, compression, torsion, shear, and bending tests and interpret the stress–strain behavior of materials. |
| Determine mechanical properties such as Young’s modulus, shear modulus, yield strength, and spring stiffness from experimental data. | ||
| Apply IS and ASTM standards while performing material testing experiments. | ||
| Measure strain using strain gauges and compare experimental results with theoretical values. | ||
| Correlate laboratory results with real-life engineering components such as beams, shafts, columns, and springs. | ||
| Thermal & Fluid Engineering Laboratory | 25MEPCC202L | Explain and apply the principles of Joule’s experiment, heat transfer, and steam properties in thermal engineering applications. |
| Identify and use various temperature sensors, viscometers, calorimeters, and flow measurement devices used in thermal and fluid systems. | ||
| Evaluate boiler performance parameters such as boiler efficiency, equivalent evaporation, dryness fraction, and heat balance. | ||
| Analyze fluid flow systems by determining major and minor losses in pipelines and verifying modified Bernoulli’s equation. | ||
| Correlate laboratory experiments with industrial practices in boilers, food processing plants, and automobile service stations, enhancing professional and practical competence | ||
| Intelligent Mechanical Systems Laboratory | 25MEPCC203L | Acquire and analyze engineering datasets using exploratory analysis techniques |
| Extract and select relevant features from engineering datasets to form effective training data for machine learning models. | ||
| Develop and evaluate classification and regression models for solving mechanical engineering problems. | ||
| Apply reinforcement learning and evolutionary optimization concepts to engineering system optimization | ||
| Apply artificial neural networks for parameter estimation, system identification, and tuning of control algorithms in mechanical engineering applications. | ||
| Workshop practices | 25MEVSE201 | IDENTIFY and ANALYZE safety standards and safety measures applicable to various sections of mechanical workshops and effectively communicate these through the preparation of informative posters or reports. |
| READ, INTERPRET Casting Process and its stages. | ||
| READ, INTERPRET, and ANALYZE industrial drawings by applying standard industrial practices to effectively communicate design and manufacturing intent. | ||
| UNDERSTAND and APPLY the principles of GD&T as well as INTERPRET surface finish and welding symbols to enhance design accuracy and manufacturability. | ||
| PLAN and EXECUTE the production of an assembly job by performing a sequence of machining operations while selecting appropriate materials and processes to meet functional and assembly requirements. | ||
| Entrepreneurship/Economics/ Management Course-I | 25HSM201 | Explain the fundamental concepts of entrepreneurship, economics, and management, and their role in industrial and business development. |
| Apply principles of economics and management to analyse business environments, resource utilisation, and organisational decision-making. | ||
| Analyse entrepreneurial opportunities by conducting market surveys, feasibility studies, and SWOT analysis for new business ventures. | ||
| Prepare a basic business plan incorporating marketing, finance, production, human resources, and legal aspects for a startup or small enterprise. | ||
| Demonstrate entrepreneurial competencies, ethical business practices, leadership, innovation, and effective communication for sustainable enterprise development. | ||
| Universal Human Values | 25VEC201 | Explain the concept of human values and self-exploration, and recognize their importance in personal life, professional life, and the role of engineers in society. |
| Understand the importance of sustainable development, environmental responsibility, and ecological balance, and evaluate the impact of technology on society and nature. | ||
| Apply values such as trust, respect, empathy, and responsibility to maintain harmony in family and society and practice ethical behavior in social interactions. | ||
| Demonstrate professional ethics, value-based decision making, leadership, and teamwork in engineering practice for the welfare of society. | ||
| Understand the relationship between self and body, differentiate their needs, and develop self-awareness and balanced lifestyle practices for personal well-being. | ||
| Community Engagement Project | 25ELC201 | Identify and analyze societal and community-based problems using systematic approaches. |
| Apply appropriate engineering or technological solutions to address community needs. | ||
| Demonstrate ethical behaviour, inclusiveness, and sustainability in community interventions. | ||
| Work effectively in multidisciplinary teams and communicate outcomes to stakeholders. | ||
| Reflect on learning experiences to develop self-learning and lifelong learning capabilities. | ||
| Sem II | ||
|---|---|---|
| Course | Course Code | Course Outcomes |
| Mathematical Foundation for Mechanical Engineering | 25MEPCC204 | SOLVE higher order linear differential equations and its applications to model and analyze mass spring systems. |
| APPLY Integral transform techniques such as Laplace transform and Fourier transform to solve differential equations involved in vibration theory, heat transfer and related mechanical engineering applications. | ||
| APPLY Statistical methods like correlation, regression in analyzing and interpreting experimental data applicable to reliability engineering. | ||
| APPLY Probability theory in testing and quality control. | ||
| PERFORM Vector differentiation & integration, ANALYZE the vector fields and APPLY to fluid flow problems. | ||
| IC Engines & Electric Vehicles | 25MEPCC205 | Explain the fundamentals of IC engines, engine components, valve timing, intake and exhaust systems, and analyze air-standard, fuel-air, and actual cycles. |
| Describe combustion in SI & CI engines, fuel injection systems, knocking, and alternative fuels | ||
| Analyze engine performance parameters, testing methods, emission formation, and control technologies | ||
| Explain engine subsystems and discuss recent trends such as EMS, HCCI, AI-based diagnostics | ||
| Explain EV architecture, motors, batteries, power electronics, charging systems, and safety | ||
| Engineering Materials and Metallurgy | 25MEPCC206 | Explain crystal structures, imperfections, and diffusion mechanisms in materials |
| Apply phase diagrams to analyze alloy behaviour and transformations | ||
| Evaluate mechanical properties using destructive and non-destructive testing methods | ||
| Understand heat treatment processes and their effects on microstructure and properties | ||
| Analyze and apply appropriate engineering materials for specific applications | ||
| Multidisciplinary Minor-II (Artificial Intellgence in Quality Control) | 25AIMDM202D | To understand the fundamentals of metrology and measurement system. |
| Apply statistical quality control tools such as control charts and process capability indices for process monitoring. | ||
| Analyze measurement and quality data using AI tools. | ||
| Apply machine learning models for error prediction and correction. | ||
| Implement AI-based solutions in smart manufacturing environments. | ||
|
Open Elective II (25OEC202A) Leadership and Team Dynamics |
(25OEC202A) | Explain leadership theories, organizational behaviour, and group dynamics concepts. |
| Apply communication and interpersonal skills in team environments. | ||
| Analyze leadership styles, group processes, and motivational approaches. | ||
| Evaluate team effectiveness, conflict management, ethics, and leadership challenges. | ||
| Develop leadership strategies for professional and global organizational environments. | ||
|
Open Elective II (25OEC202B) Green Practices & ESG Frameworks |
(25OEC202B) | Explain the concepts of sustainability, green practices, and ESG frameworks. |
| Analyse environmental impacts and adopt green technologies for sustainable development. | ||
| Evaluate social responsibility and stakeholder engagement practices in organizations. | ||
| Understand governance principles, ethical leadership, and regulatory frameworks. | ||
| Apply ESG reporting standards and sustainability assessment methods in industries. | ||
|
Open Elective II (25OEC202C) Innovation and Business Strategy |
(25OEC202C) | Explain concepts of innovation, creativity, and business strategy. |
|
Apply innovation management and strategic thinking tools for business problem-solving. Analyze business models, technology innovation, and entrepreneurial strategies. |
||
| Evaluate sustainability, intellectual property, and innovation management practices. | ||
| Develop innovative business solutions and strategic growth approaches. | ||
|
Open Elective II (25OEC202D) Stress Management and Mental Well Being |
(25OEC202D) | Explain the concepts of stress, mental health, and wellbeing |
| Identify sources of stress and analyse their impact | ||
| Apply stress management techniques | ||
| Demonstrate emotional intelligence and coping strategies | ||
| Design a personal wellbeing and stress management plan | ||
|
Open Elective II (25OEC202E) French Language Module-II |
(25OEC202E) | Use basic French expressions confidently. |
| Understand simple dialogues and instructions. | ||
| Read and write short paragraphs. | ||
| Participate in guided conversations. | ||
| Apply French in practical situations. | ||
|
Open Elective II (25OEC202F) French Language Module-II |
(25OEC202F) | Use beginner-level German expressions confidently. |
| Understand simple dialogues and instructions. | ||
| Read and write short passages. | ||
| Participate in practical conversations. | ||
| Apply German in everyday situations. | ||
|
Open Elective II (25OEC202G) Japanese Language Module-II |
(25OEC202G) | Communicate using beginner-level Japanese expressions. |
| Understand short dialogues and passages. | ||
| Read and write basic Japanese sentences | ||
| Participate in practical conversations. | ||
| Apply Japanese in everyday situations. | ||
| Metrology & Quality Control Laboratory | 25MEPCC204L | Identify various linear, angular, and surface measurement instruments and explain their working principles. |
| Demonstrate the use of precision instruments like micrometer, venire calipers, dial gauge, sine bar, slip gauges, and profile projector for dimensional inspection. | ||
| Perform calibration of instruments and machines to ensure accuracy and repeatability in measurements. | ||
| Apply statistical quality control tools (e.g., control charts, histograms, Cp/Cpk) for process evaluation. | ||
| Analyze measurement data, identify deviations, and suggest quality improvement strategies based on inspection outcomes. | ||
| IC Engines Laboratory | 25MEPCC205L | Conduct IC engine experiments to determine friction power, performance parameters, and thermal efficiencies using standard testing methods. |
| Prepare and analyze the heat balance sheet of an IC engine and evaluate various heat losses under different load conditions. | ||
| Identify and explain the construction and working of IC engine subsystems, including fuel injection, ignition, cooling, and lubrication systems. | ||
| Measure and interpret exhaust emissions (CO, HC, NOx, CO₂) and smoke density, and relate results to engine operating conditions and emission norms. | ||
| Explain the basic architecture and powertrain components of electric vehicles and relate laboratory knowledge to real-world automotive practices through industry exposure. | ||
| Material & Metallurgical Testing Laboratory | 25MEPCC206L | Apply appropriate destructive testing methods to evaluate hardness and impact strength of engineering materials. |
| Perform and interpret results of non-destructive testing techniques for defect detection in materials. | ||
| Prepare metallographic specimens and analyze microstructures of steels, cast irons, and non-ferrous metals | ||
| Correlate heat treatment processes with changes in microstructure and hardness of steels. | ||
| Demonstrate understanding of industrial material testing practices through industrial visits and technical reporting. | ||
| Solid Modeling & Drafting Laboratory | 25MEVSE202 | Demonstrate proficiency in Creo Parametric for sketching, part modeling, and assembly creation. |
| Create parametric and advanced machine components with accurate mass properties and material assignment. | ||
| Design sheet metal components and generate flat patterns for production. | ||
| Simulate mechanisms and motions, and perform basic structural, thermal, and modal analyses. | ||
| Prepare professional engineering drawings for parts and assemblies, including tolerances, GD&T, and BOMs. | ||
| Modern Indian Language | 25AEC201A | मराठी भाषेतील प्रगत भाषिक कौशल्यांचा प्रभावीपणे वापर करून संवाद साधू शकतील. |
| प्रसारमाध्यमांतील संज्ञापनाचे विविध प्रकार, स्वरूप व समाजातील त्यांचे स्थान स्पष्ट करू शकतील. | ||
| व्यक्तिमत्त्व विकासामध्ये भाषेचे महत्त्व ओळखून प्रभावी संवादकौशल्य विकसित करू शकतील. | ||
| लोकशाहीतील जीवनव्यवहार आणि प्रसारमाध्यमे यांतील परस्परसंबंधांचे विश्लेषण करू शकतील. | ||
| प्रसारमाध्यमांसाठी विविध प्रकारचे लेखन कौशल्य आत्मसात करून प्रभावी लेखन करू शकतील. | ||
| Modern Indian Language (Sanskrit) | 25AEC201B | Understand the basic structure, phonetics, and grammar of the sanskrit language. |
| Construct simple Sanskrit sentences using basic grammatical rules. | ||
| Interpret selected Sanskrit verses related to science, mathematics, and philosophy. | ||
| Recognize the contributions of ancient Indian scholars to science and engineering. | ||
| Appreciate the relevance of Sanskrit in modern fields such as computational linguistics, knowledge | ||
| Entrepreneurship/Economics/ Management Course-II | 25HSM202 | Explain the fundamental concepts of entrepreneurship, economics, and management, and their role in industrial and business development. |
| Apply principles of economics and management to analyse business environments, resource utilisation, and organisational decision-making. | ||
| Analyse entrepreneurial opportunities by conducting market surveys, feasibility studies, and SWOT analysis for new business ventures. | ||
| Prepare a basic business plan incorporating marketing, finance, production, human resources, and legal aspects for a startup or small enterprise. | ||
| Demonstrate entrepreneurial competencies, ethical business practices, leadership, innovation, and effective communication for sustainable enterprise development. | ||
|
Value Education Course (Indian Constitution and Governance) |
25VEC202 |
Explain the historical background, features, and structure of the Indian Constitution. |
| Describe Fundamental Rights, Directive Principles, and Fundamental Duties and their significance | ||
| Apply constitutional provisions to analyze the functioning of Union and State governments. | ||
| Analyze the role of constitutional and statutory bodies in Indian governance | ||
| Evaluate contemporary governance issues with reference to constitutional values and ethics. | ||
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