RTU Syllabus Mechanical Engineering 6th Semester

RTU Syllabus Mechanical Engineering 6th SemesterRTU Syllabus Mechanical Engineering 6th Semester: The syllabus and marking scheme will let you know about the important topics and their respective weightage. If you are preparing for the Mechanical Engineering 6th semester exam, you should clear the concept behind every topic from the latest syllabus and marking scheme. 

By creating a proper study plan based on the Mechanical Syllabus and Marking scheme, you can score more in better marks in Mechanical engineering.

Based on the score in Mechanical Engineering degree, you will find better career opportunities.

With the depth knowledge in every topic of Mechanical Engineering 6th Semester will also helpful to crack the various competitive exams like Gate, IES, etc.

Here we are providing you the complete guide on RTU Syllabus Mechanical Engineering 6th Semester 2020 and Marking Scheme.

RTU Syllabus Mechanical Engineering 6th Semester 2020

RTU Syllabus Mechanical engineering 6th Semester is designed in a way to provide you a clear understanding of the course structure. RTU publishes the latest syllabus on its official website for all semesters and branches.

You must have Mechanical 6th Semester books & study materials, Previous years questions paper along with the latest Mechanical 6th sem Syllabus to boost your semester exam preparation.

Before starting the complete guide on RTU Syllabus Mechanical Engineering 6th Semester 2020, let’s check the highlights of RTU from the table below.

RTU Kota Highlights:

Establishment 2006
Formation Govt. of Rajasthan
Type of University State
Approvals UGC
Admission through: Merit-Based
Affiliations AICTE
University Location Rajasthan Technical University,
Rawathbhata Road Kota-324010, Rajasthan, India.

Check the latest syllabus for RTU Mechanical Engineering 6th semester from below.

Measurement And Metrology

Unit Topic
1 Introduction: Objective, scope and outcome of the course.
2 Concept of measurement: General concept  of  measurement, Need for measurement, Generalized measuring system, Units, Standards, Sensitivity, Readability, Range of accuracy, Precision, Accuracy Vs precision, Uncertainty.
Repeatability and reproducibility, Errors in measurement, Types of  error, Systematic  and  random  error, Calibration, Interchangeability.
3 Linear and angular measurements: Linear measuring instruments: Vernier caliper, Micrometer, Interval measurements:- Slip gauges, Checking of slip gauges for surface quality, Optical flat, Application of limit gauges
Comparators:-  Mechanical  comparators, Electrical comparator, Optical comparator, Pneumatic comparator;
Sine bar, Use of sine bar, Limitations of sine bars, Sources of error  in sine bars, Bevel protractor, Applications of bevel protractor.
4 Form measurement: Introduction, Screw thread measurement, Thread gauges, Measurement of gears: Gear errors.
Surface finish measurement:-Introduction, Elements of surface texture, Analysis of surface finish, Methods of measuring surface finish, Straightness measurement, Flatness testing, Roundness measurements
5 Coordinate measuring  machine  (CMM):-Types  of  CMM, Features of CMM, Computer based inspection,
Measurement of power, flow and temperature related properties Measurement of force, Accelerometer, Load cells, Bourdon tube. Torque  measurement: Torque measurement using strain gauges, Torque measurement using torsion bars, Mechanical dynamometers.
6 Measurement of flow: Variable area meters – rotameter, Hot wire anemometer, Pitot tube. Temperature measurement, Bimetallic strip, Thermocouples (Thermo electric effects), Thermistors, Pyrometers

Computer Integrated Manufacturing Systems (CIMS) 

Unit Topic
1 Introduction: Objective, scope and outcome of the course.
2 Introduction to CIM: Overview of Production Systems, the product cycle, Automation  in Production Systems, computer’s role in manufacturing, sources and types of data used in manufacturing. The Beginning of CAM: Historical Background,
Numerical Control (NC): Basic components of an NC system, coordinate system and motions control systems. Computer Numerical Control (CNC): features of CNC, machine control unit, CNC software. Direct  Numerical  Control  and  Distributed Numerical Control. Applications, advantages and disadvantages of NC. Adaptive control of machining system.
3 NC Part programming: Manual and computer assisted part programming, Part programming with APT. NC part programming using CAD/CAM software. NC cutter path verification.
4 Computer Aided Process Planning: Traditional Process Planning, Retrieval process planning system, Generative Process Planning, Machinability data systems, computer generated time standards.
Group Technology: Introduction, part families, part classification and coding, coding system and machining cells.
5 Computer Aided Production Management Systems: Introduction to computer aided PPC, Introduction to computer aided inventory management, manufacturing resource planning (MRPII), computer process monitoring and shop floor control, computer process control.
Computer Aided Quality Control; Computer in quality control, contact inspection methods, Non contact inspection methods, optical and non optical computer aided testing.
6 Computer Aided Material Handling; Computer control on material handling, conveying, picking. Ware house control, computerized material handling for automated inspection and assembly.
Computer Integrated Manufacturing Systems: Introduction, types special manufacturing systems, flexible manufacturing systems (FMS).
Collaborative Engineering; Introduction, Faster Design throughput, Web based design, Changing design approaches,          extended enterprises, concurrent engineering, Agile and lean manufacturing.

Mechanical Vibrations

Unit Topic
1 Introduction: Objective, scope and outcome of the course.
2 Introduction to Sound: Frequency dependent human response to sound, Sound pressure dependent human response, Relationship among sound power, sound intensity and sound pressure level.
Introduction to Noise: Auditory and Non auditory effects of  Noise, Major sources of the noise, Industrial noise sources, Industrial noise control strategies.
Introduction to Vibration: Importance and scope  of  vibrations, terminology and classification,  Concept  of  Degrees  of  freedom, Harmonic motion, vectorial representation, complex number representation, addition.
3 Undamped Single Degree of Freedom System: Derivation  of  equation of motion for one dimensional longitudinal, transverse and torsional vibrations without damping using Newton’s second law, D’ Alembert’s principle and Principle of conservation of energy, Compound pendulum and centre of percussion.
Damped vibrations of single degree of freedom systems: Viscous damping, under-damped, critically damped and over-damped systems, Logarithmic decrement.
Vibration characteristics of Coulomb damped system and Vibration characteristics of Hysteretic damped systems.
3 Forced Vibrations of Single Degree of Freedom Systems: Forced vibration with constant harmonic excitation, Steady state  and transient parts, Frequency response curves and phase angle plot, Forced vibration due to excitation of support.
Vibration Isolation and Transmissibility: Force transmissibility, Motion transmissibility, Forced vibration with rotating and reciprocating unbalance, Materials used in vibration isolation.
5 System with Two Degrees of  Freedom:  principle  mode  of  vibration,  Mode shapes, Undamped forced vibrations of two degrees of freedom system with harmonic excitation, Vibration Absorber, Undamped dynamic vibration absorber and centrifugal pendulum absorber
Critical Speed of Shaft: Critical speed of a light shaft without damping, critical speed ofshafthavingmultiple discs, secondary critical speed.
6 Many Degrees of Freedom Systems (Exact analysis): Equation of Motion, The matrix method, Eigen Values and Eigen Vectors, Method of influence Coefficients and Maxwell’s reciprocal theorem. Torsional vibrations of multi rotor system, vibrations of geared system, Generalized coordinates and coordinate coupling Many Degrees of  Freedom Systems (approximate methods): Rayleigh’s, Dunkerley’s, Stodola’s and Holzer’s methods
Vibrations of continuous systems: Transverse vibration of a string, Longitudinal vibration of a bar, Torsional vibration of a shaft.

Design Of Machine Elements- II

Unit Topic
1 Introduction: Objective, scope and outcome of the course.
2 Fatigue Considerations in  Design:  Variable  load,  loading pattern, endurance stresses, Influence of size, surface finish, notch sensitivity and stress concentration.
Goodman  line, Soderberg line, Design of  machine members subjected to combined, steady and alternating stresses.
Design for finite life, Design of Shafts  under  Variable  Stresses,  Bolts subjected to variable stresses.
3 Design of IC Engine components:

Piston, Cylinder, Connecting Rod and Crank Shaft.

4 Design of helical compression, tension, torsional springs, springs under variable stresses.
Design of belt, rope and pulley drive system,
5 Design of gear teeth:  Lewis and Buckingham equations, wear and dynamic load considerations.
Design and force analysis of spur, helical, bevel and worm gears, Bearing reactions due to gear tooth forces.
6 Design  of  Sliding  and  Journal Bearing: Methods of lubrication, hydrodynamic, hydrostatic, boundary etc. Minimum film thickness and thermal equilibrium.
Selection of anti-friction bearings for different loads and load cycles, Mounting ofthe bearings, Method of lubrication.

Quality Management

Unit Topic
1 Introduction: Objective, scope and outcome of the course.
2 The meaning of Quality and quality improvement dimensions of quality, history of quality methodology, quality control, Quality of design and quality of conformance, Quality policy and objectives, Economics of quality.
Modeling process quality: Describing variation,  frequency distribution, continuous and discrete, probability distributions, pattern of variation, Inferences about process quality: sampling distributions and estimation of process parameters. Analysis of variance.
3 Statistical Quality Control: Concept of SQC, Chance and assignable causes of variation, statistical basis of control  chart,  basic principles, choice of control limits, sample size and sampling frequency, analysis of patterns on control charts. The magnificent seven.
Control chart for variables: X-bar and R charts, X-bar and S charts, control chart for individual measurement. Application of variable control charts.
4 Control chart for attributes: control chart for fraction non conforming P- chart, np-chart, c-chart and u-chart. Demerit systems, choice between attribute and variable control chart. SPC for short production runs. Process capability analysis using histogram and probability plot, capability ratios and concept of six sigma.
5 Quality Assurance: Concept, advantages, field complaints, quality rating, quality audit.
Acceptance Sampling: Fundamental concepts in acceptance  sampling, operating characteristics curve. Acceptance  sampling plans, single, double and multiple sampling plans, LTPD, AOQL, AOQ.
Introduction to Quality systems like ISO 9000 and ISO 14000.
6 Reliability and Life Testing– Failure models  of  components,  definition of reliability, MTBF, Failure rate, common failure rate curve, types of failure, reliability evaluation in simple cases of exponential failures in series, paralleled  and  series-parallel  device configurations, Redundancy and improvement factors evaluations. Introduction to Availability and Maintainability
Introduction to Taguchi Method of Design of Experiments, Quality loss function.

Refrigeration And Air Conditioning

Unit Topic
1 Introduction: Objective, scope and outcome of the course.
2 Introduction: Refrigeration and second law of Thermodynamics, Refrigeration effect and unit of Refrigeration, Heat pump, reversed Carnot cycle.

Vapour Compression Refrigeration System: Analysis of simple vapour compression Refrigeration cycle by p-h and T-S diagram. Effect of operating conditions

Multiple Evaporator and compressor system: Application, air compressor system, Individual compressor, compound compression, cascade system. Application, air compressor systems, individual compressor, compound compression, cascade system.
3 Gas Cycle Refrigeration: Limitation of Carnot cycle with gas, reversed Brayton cycle, Brayton cycle with regenerative heat exchanger.
Air cycle for air craft: Necessity of cooling of air craft, Basic cycle, boot strap, regenerative type air craft refrigeration cycle.
4 Other refrigeration  systems  (description  only):  Vapour absorption refrigeration system, Electrolux refrigerator, Lithium Bromide – Water system, Water vapour refrigeration system, Vortex tube refrigeration system, thermo electric refrigeration system.
Refrigerants: Classification, Nomenclature, selection of Refrigerants, global warming potential of CFC Refrigerants. Refrigeration Equipments: Compressor, condenser,   evaporator, expansion devices, types & working.
5 Psychrometry: Psychrometric properties, psychometric relations, pyschrormetric charts, psychrometric processes, cooling coils, By-pass factor, Apparatus Dew point temperature and air washers.
Human Comfort: Mechanism of body heat losses, factors affecting human comfort, effective temperature, comfort chart.
6 Cooling load calculations: Internal heat gain, system heat gain, RSHF, ERSHF, GSHF, cooling load estimation, heating load estimation, psychrometric calculation for cooling.
Selection of air conditioning: Apparatus for cooling and dehumidification, Air conditioning system, year round air conditioning.

Non-Conventional Machining Methods

Unit Topic
1 Introduction: Objective, scope and outcome of the course.
2 Introduction and classification of advanced machining process, consideration in process selection, difference  between  traditional  and non-traditional process, Hybrid process.
Abrasive finishing processes: AFM, MAF (for Plain and cylindrical surfaces).
3 Mechanical  advanced machining process: Introduction, Mechanics of metal removal, process principle, Advantages, disadvantages and applications of AJM, USM, WJC.
4 Thermo electric advanced machining process: Introduction, Principle, process parameters, advantages, disadvantages and applications about EDM, EDG,
5 Electrochemical and chemical advanced machining process: ECM, ECG, ESD, Chemical machining,
Anode shape prediction and tool design for ECM process. Tool (cathode) design for ECM Process.
6 Introduction to Micro and nanomachining,

Micro Electro And Mechanical Systems (MEMS) And Microsystems

Unit Topic
1 Introduction: Objective, scope and outcome of the course.
2 Over view of MEMS and Microsystems: Microelectromechanical Systems (MEMS) and Microsystems, Typical MEMS and Microsystem products, Evaluation of Microfabrication, Microsystem and microelectronics, the multidisciplinary nature of microsystem design and manufacture, Microsystems and miniaturization, Application of Microsystems in the automotive industry, applications of Microsystems in other industries.
  Working Principles of Microsystems: Introduction, Microsensors, Microactuation, MEMS with Microactuators, Microaccelerometers, Microfluidics.
3 Engineering Science for Microsystem Design and  Fabrication: Introduction, atomic structure of matter, ions and ionization, moleculat theory of matter and intermolecular forces, doping of semiconductors, the diffusion process, plasma physics, electrochemistry, quantum physics.
  Engineering Mechanics for Microsystem design: Introduction, static bending of thin plates, mechanical vibration, thermomechanics, fracture mechanics, thin-film mechanics, overview of finite element stress analysis.
4 Thermofluid Engineering and Microsystem design: Introduction, overview of the basics of fluid mechanics in Macro and mesoscales, Basic equations in continuum fluid dyanimics, laminar fluid flow in circular conduits, computational fluid dynamics, Incompressible fluid flow in microconduits, fluid flow in submicrometer and nanoscale, overview of heat conduction in solids, heat conduction in multilayered thin films, heat conduction in solids in submicrometer scale.
  Scaling laws in Miniaurization: Introduction to scaling, scaling in geometry, scaling in rigid-body dynamics, scaling in electrostatic forces, scaling in electromagnetic forces, scaling in electricity, scaling in fluid mechanics, scaling in heat transfer.
5 Materials for MEMS and Microsystems: Introduction, substrate and wafers, active substrate materials, silicon as a substrate material, silicon compounds, silicon piezoresistors, gallium arsenide, quartz, piezoelectric crystals, polymers, packaging materials.
Microsystem Fabrication Processes: Introduction, Photolithography, Ion implantation, diffusion, oxidation, chemical vapor deposition, physical vapor deposition- sputtering, deposition by epitaxy, etching.
6 Overview of Micromanufacturing: Introduction, bulk micromanufacturing, surface micromachining, LIGA.
  Microsystem Design: Introduction, design consideration, process design, mechanical design, mechanical design using finite element method, design of a silicon die for a micropressure sensor, design of microfluidic network systems, design case: capillary electrophoresis network system.


Unit Name Of Experiment
1 To prepare part programming for plain turning operation.
2 To prepare part program for turning operations using turning cycle.
3 To prepare part program for threading operation.
4 To prepare part program for gear cutting using mill cycle.
5 To prepare part program for multiple drilling in X and Z axis using drilling cycle.
  Important Note:

It is mandatory for every student to undertake a Mini project. Mini project shall be a group activity. A group shall consist of maximum five students. Final evaluation shall include 30% weight age to mini project.

Engraving of students’ name, manufacturing of a part.

Vibration LAB.

Unit Name Of Experiment
1 To verify relation T = 2π (l/g) for a simple pendulum.
2 To determine radius of gyration of compound pendulum.
3 To determine the radius of gyration of given bar by using bifilar suspension.
4 To determine natural frequency of a spring mass system.
5 Equivalent spring mass system.
6 To determine natural frequency of free torsional vibrations of single rotor system.

Horizontal rotor

Vertical rotor

7 To verify the Dunkerley’s rule.
8 Performing the experiment to find out damping co-efficient in case of free damped torsional vibration
9 To conduct experiment of trifler suspension.
10 Harmonic excitation of cantilever beam using electro-dynamic shaker and determination of resonant frequencies.
11 Study of Vibration measuring instruments.
12 Perform study of the following using Virtual Lab http://www.vlab.co.in/
13 Forced Vibration of a Cantilever Beam with a Lumped Mass at Free End: To calculate the natural freq and damping ratio  for  forced  vibration  of  a  single DOF cantilever beam system, experimentally; and compare the results with theoretical values.
14 Harmonicaly Excited Forced Vibration of a Single DOF System: To analyze the forced vibration response of a single DOF system at diff damping ratio and frequency ratio.
15 Perform study of the following using Virtual Lab http://www.vlab.co.in/
16 Forced Vibration of a Cantilever Beam with a Lumped Mass at Free End: To calculate the natural freq and damping ratio  for  forced  vibration  of  a  single DOF cantilever beam system, experimentally; and compare the results with theoretical values.
17 Harmonicaly Excited Forced Vibration of a Single DOF System: To analyze the forced vibration response of a single DOF system at diff damping ratio and frequency ratio.
Important Note:

It is mandatory for every student to undertake a Mini project. Mini project shall be a group activity. A group shall consist of maximum five students. Final evaluation shall include 30% weight age to mini project.

Design of vibration system, measurement of vibration, FFT analysis using MATLAB

Machine Design Practice – II

Unit Sessional Work
  Problems on:
  Use data hand book by Mahadevan and Reddy
1 Fatigue loading.
2 Helical compression, tension and torsional springs design.
3 Curved Beams.
4 Preloaded bolts and bolts subjected to variable stresses.
5 Belt, Rope and Chain drive system.
6 Gear Design.
7 Sliding contact bearing design.
8 Anti-friction bearing selection
  Important Note:

It is mandatory for every student to undertake a Mini project. Mini project shall be a group activity. A group shall consist of maximum five students. Final evaluation shall include 30% weight age to mini project.

Design of assembly (mechanical systems) using various BIS codes/data book

Thermal Engineering LAB-1

All Semester Syllabus for RTU Mechanical Engineering

You should have the following syllabus to boost your exam preparation for the RTU Mechanical Engineering.

Click on the link to access all semester syllabus related to Mechanical Engineering.

RTU Mechanical Engineering 6th Semester Marking Scheme

Here you can check the latest Mechanical Engineering 6th Semester Marking Scheme.

RTU Mechanical Engineering 6th Sem Marking Scheme

SEMESTER VI 6 6 Hrs. / Week IA Exam Total
Subject Code Title L T P
6ME1A Design of Machine Elements – II 3

Theory Subjects

20 80 100
6ME2A Newer Machining Methods 3 20 80 100
6ME3A Mechatronics 3 20 80 100
6ME4A Vibration Engineering 3 1 20 80 100
6ME5A Steam Engineering 3 1 20 80 100
6ME6.1A Non Destructive Evaluation and Testing





6ME6.2A Design and Manufacture of Plastic Products
6ME6.3A Maintenance Management
Practicals and Sessionals
6ME7A Machine Design Sessional -II

Lab courses

3 75 50 125
6ME8A Industrial Engineering Lab-I 2 45 30 75
6ME9A Mechatronics Lab 2 45 30 75
6ME10A Vibration Engineering Lab 2 45 30 75
6MEDC Discipline & Extra Curricular Activity 50
Total 18 2 9 1000

Meaning Of various letters:

  • L: Lecture, T: Tutorial, P: Practical, Cr: Credits ETE: End Term Exam, IA: Internal Assessment

We have covered the complete guide on RTU Syllabus Mechanical Engineering 6th Semester 2020. feel free to ask us any questions in the comment section below.

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