ITI Computer Aided Manufacturing (CAM) Programmer Syllabus: Course Structure, Detailed Syllabus

Jahanvi Bakshi

Updated On: March 04, 2025 04:00 PM

Check out the ITI Computer Aided Manufacturing (CAM) Programmer Syllabus here. Subjects under the syllabus of ITI Computer Aided Manufacturing (CAM) Programmer are CNC Lathe Programming, CNC Milling, integration of CAM software with CNC Machines, CAM programme verification, etc.

ITI Computer Aided Manufacturing (CAM) Programmer Syllabus: Course Structure, Detailed Syllabus

ITI Computer Aided Manufacturing (CAM) Programmer Syllabus : The ITI Computer Aided Manufacturing (CAM) Programmer Trade lasts for 1 year wherein students get to learn about CNC Machines, CAM Programme Verification, CAM Programme Simulation, configuring post-processors, and more. This engineering ITI Trade falls under the capital goods and manufacturing sector. Students who wish to become Computer Aided Manufacturing (CAM) Technicians or those with an unyielding passion for learning CAM software, CNC Machines, CAM Programming, CAD geometry, etc should consider enrolling in this ITI course after completing their Class 10th examination. If you wish to know more about the detailed syllabus of the ITI Computer Aided Manufacturing (CAM) Programmer Trade and its course structure, scroll down.

Also Read: ITI Courses After 10th in India

ITI Computer Aided Manufacturing (CAM) Programmer Detailed Syllabus

Check out the detailed syllabus for the ITI Computer Aided Manufacturing (CAM) Programmer Trade in the table given below:

ITI Computer Aided Manufacturing (CAM) Programmer Trade Syllabus: Detailed Topics and Subjects

  • All necessary guidance is to be provided to the newcomers to become familiar with the workings of the Industrial Training Institute system including store procedures.
  • Soft Skills, their importance, and Job area after completion of training. Importance of safety and general precautions observed in the industry/shop floor.
  • Introduction of First Aid.
  • Operation of electrical mains and electrical safety. Introduction of PPEs.
  • Response to emergencies e.g. power failure, fire, and system failure. Importance of housekeeping & Good shop floor practices.
  • Introduction to the 5S concept & its application.
  • Occupational Safety & Health: Health, Safety and Environment guidelines, legislations & regulations as applicable.
  • Basic understanding of Hot work, confined space work, and material handling equipment.
  • Introduction to Engineering Drawing and Drawing Instruments.
  • Conventions
  • Sizes and layout of drawing sheets
  • Title Block, its position and content
  • Drawing Instrument
  • Lines- Types and applications in drawing
  • Freehand drawing of Geometrical figures and blocks with dimension
  • Transferring measurement from the given object to the free hand sketches.
  • Freehand drawing of hand tools and measuring tools.
  • Drawing of Geometrical figures: Angle, Triangle, Circle, Rectangle, Square, Parallelogram.
  • Lettering & Numbering – Single Stroke.
  • Dimensioning
  • Types of arrowheads
  • Leader line with text
  • Position of dimensioning (Unidirectional, Aligned)
  • Symbolic representation
  • Different symbols are used in the related trades.
  • Concept and reading of Drawing
  • Concept of axes plane and quadrant
  • Concept of Orthographic and Isometric Projections
  • Method of first-angle and third-angle projections (definition and difference)
  • Reading of Job drawings related to trades.
  • Unit, Fractions
  • Classification of the unit system
  • Fundamental and Derived units F.P.S, C.G.S, M.K.S and SI units
  • Measurement units and conversion
  • Factors, HCF, LCM, and problems  Fractions - Addition, subtraction, multiplication & division
  • Decimal fractions - Addition, subtraction, multiplication & division
  • Solving problems by using a calculator
  • Square root, Ratio, and Proportions, Percentage
  • Square and square root
  • Simple problems using a calculator.
  • Applications of Pythagoras theorem and related problems Ratio and proportion
  • Ratio and proportion - Direct and indirect proportions Percentage
  • Percentage - Changing percentages to decimal and fractions Material Science
  • Types of metals, types of ferrous and nonferrous metals
  • Introduction of iron and cast iron.
  • Mass, Weight, Volume, and Density
  • Specific gravity
  • Speed and Velocity, Work, Power, and Energy
  • Speed and velocity - Rest, motion, speed, velocity, the difference between speed and velocity, acceleration, and retardation
  • Speed and velocity - Related problems on speed & velocity
  • Work, power, energy, HP, IHP, BHP, and efficiency Heat & Temperature and Pressure
  • Concept of heat and temperature, effects of heat, the difference between heat and temperature, boiling point & melting point of different metals and non-metals
  • Scales of temperature, Celsius, Fahrenheit, kelvin, and conversion between scales of temperature. Basic Electricity
  • Introduction and uses of electricity, electric current AC, DC their comparison, voltage, resistance, and their units.
  • Conductor, insulator, types of connections - series and parallel.
  • Ohm's law, the relation between V.I.R & related problems.
  • Electrical power, energy, and their units, calculation with assignments.
  • Magnetic induction, self and mutual inductance, and EMF generation
  • Electrical power, HP, energy, and units of electrical energy Trigonometry
  • Measurement of angles
  • Trigonometrical ratios
  • Identify and make a list of drawings, such as assembly drawings, part drawings, and detail drawings.
  • Practice on dimensions, tolerances, symbols, and annotations present in the drawings and understand their meaning and significance.
  • Applying different dimensioning techniques, such as linear dimensions, angular dimensions, and geometric tolerances, based on the requirements of the drawing as per the case study.
  • Perform tolerance analysis exercises to understand how tolerances are applied in manufacturing drawings.
  • Study the impact of different tolerance values on the fit, functionality, and manufacturability as per the case study.
  • Create and interpret section views in manufacturing drawings.
  • Understand how to represent internal features, hidden details, and complex geometries through section views and how they aid in understanding the design and manufacturing requirements.
  • Assign the dimensioning components based on given tolerances. Choose various geometric features, such as holes, shafts, or surfaces, and apply appropriate tolerances based on the functional requirements and manufacturing capabilities.
  • Perform tolerance stack-up analysis on assemblies or sub-assemblies.
  • Apply GD&T symbols on the given industrial manufacturing drawings.
  • Identify and make a list of types that fit in assembly.
  • Introduction to turning and milling operations.
  • Types of tooling. Types of tool holders.
  • Impact of machining parameters like speed, feed, and depth of cut.
  • Impact on surface finish, and dimensional tolerances.
  • Tools Cutting parameters, Tool geometry, and tool wear.
  • Importance of workpiece material on tool selection.
  • Concept of cycle time, Tact time, Lead time.
  • Comparing cycle time vs Tact time vs lead time.
  • Case study and Importance of calculation in industry.
  • Concept of productivity.
  • Industrial case study for machining shop.
  • List out the turning machine operation.
  • List out the milling machine operation.
  • CNC Codes are commands used to control the movement and functions of a CNC machine.
  • M Code and its applicability.
  • G Code and its functionality.
  • List out the M code with its functions.
  • List out the G code with its function List out the importance of machine parameters, tool offsets, workpiece zero points, and coordinate systems Orientation of user interface (UI) of cam software.
  • Understand the Uses of the Menu bar (File, Edit, View, etc.)
  • Operation manager, toolpath manager, plan manager, Status bar, graphic window.
  • Make a list of CAM software benefits.
  • Industrial case study for CNC turning operation.
  • Industrial case study for milling machine operation.
  • Operation in a total library.
  • Concept about tool selection turning right-hand tools, left-hand tools.
  • Tool file import in a CAM.
  • Concept tooling assembly builder in cam software.
  • Orientation of cam software sketcher toolbar.
  • Plane selection and its importance.
  • 2D Sketch concept in cam software.
  • Orientation of 3D modelling toolbar CAM software.
  • Concept of draft angle inspection using cam software.
  • Creating a 3D surface using CAM, quality checks ensure the final 3D surface aligns with specifications. Concept of engraving on a curved surface.
  • Concept of utilizing transformation tools such as translation, rotation, scaling, and mirroring, adjusting dimensions, creating symmetrical features, or optimizing the overall design.
  • Concept of holding devices, tool clearance, and access to machining features.
  • Importance of workpiece and tool material properties, tool life calculations.
  • Tool selection criteria. Impact of cutting parameters, cost analysis.
  • Concept of Importing, locating, and quickly re-use fixtures in CAM software.
  • Practical steps for stock definition and setup include selecting the appropriate material and concept of handle stock model in advanced cam tool.
  • Concept of roughing and finishing operation.
  • Various strategies to achieve efficient material removal during roughing operations.
  • Benefits of roughing operation.
  • CAM programming using features like flow lines, waterlines, raster milling, and spiral milling, several criteria can be considered.
  • Orientation of different controllers, proficiency in CAM software usage, accuracy of generated programs, postprocessing abilities, and problem-solving skills.
  • Concept of Error-free CAM programs, and post-process them for specific machine controllers.
  • Validate the CAM Program to detect errors or collisions.
  • Orientation of different controllers, proficiency in CAM software usage, the accuracy of generated programmes, and postprocessing abilities. Different technologies &processes of CAM: - Using 3d tool path & generate. Convert the toolpaths into machine-specific instructions.
  • Concept of in-process inspection of components.
  • Identifying and tagging for Ok, Rework, and reject components and their importance.
  • Identify whether the workpiece is in the reject stage an opportunity to rework, or subprogramme selection.
  • Concept of Post toolpath.
  • The process involves in Post tool path operation.
  • Selection criteria of NC File format.
  • Concept of editing generated NC code.
  • Sending NC Files to the machine.
  • Concept of creation of hole table report in CAM software with coordinates.
  • Concept and orientation of Art Mode.
  • Concept of 3d model into bounding box Concept of Contour, raster to vector CAM Programming.
  • Importance of CAM software workflows.
  • Concept of toolpath generation parameter effects such as entry points, stopovers, and cutting strategies, on the overall machining performance.
  • Methods of chain selection and its types.
  • Concept of Complex CAM programming for aerospace components, Healthcare / medical equipment like implants, and surgical instruments with high precision.
  • Concept of generating CAM program for electronic applications.
  • Challenges in generating CAM program for Mill 3D CAM Program Types of different Dies and its machining criteria.
  • 3D Mill mould cavity machining criteria and its significant parameters.
  • Concept of the negative impression of Die, Moulds for plastic injection machine. Machining criteria for die-casting components.
  • Industrial case studies.
  • Concept of Tagging OK, Rework, and reject.
  • Concept of quality control and quality assurance.
  • Industry case study.
  • Standard operating procedure for machine operators.
  • Innovation, the Importance of Innovation, how to start a small-scale company offering CAM services, how to manage operations, potential opportunities for entrepreneurship, etc.

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ITI Computer Aided Manufacturing (CAM) Programmer Course Structure

Check out the entire course structure of the ITI Computer Aided Manufacturing (CAM) Programmer Trade in the table given below:

S.No.

Course Element

Notional Training Hours

1.

Professional Skill (Trade Practical)

840

2.

Professional Knowledge (Trade Theory)

240

3.

Employability Skills

120

Total

1200

Also Read: ITI Admissions 2025

If you wish to know more about the ITI Computer Aided Manufacturing (CAM) Programmer Syllabus and course structure, then you can consider reaching out to us through our toll-free number 1800-572-9877, or you can even just fill out CollegeDekho’s Common Application Form to get in touch with some of our professional college counsellors. For any further queries or doubts that you may have, you can type them out in our QnA zone where our top experts will try their best to help you out.

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FAQs

What is the duration of the ITI Computer Aided Manufacturing (CAM) Programmer Trade?

The duration of the ITI Computer Aided Manufacturing (CAM) Programmer Trade is 1 year.

Is ITI Computer Aided Manufacturing (CAM) Programmer a technical / non-technical trade?

ITI Computer Aided Manufacturing (CAM) Programmer is a technical or engineering trade.

What are the passing criteria for the ITI Computer Aided Manufacturing (CAM) Programmer Trade?

To determine the overall result, a weightage of 100% is applied for six-month and one-year duration courses, and a 50% weightage is applied to each examination for two-year courses. The minimum pass percentage for Trade Practical and Formative assessment is 60% &for all other subjects is 33%.

What are the subjects covered under the ITI Computer Aided Manufacturing (CAM) Programmer Syllabus?

Subjects covered under the ITI Computer Aided Manufacturing (CAM) Programmer Syllabus are CAM programming, CAM simulation, CAM programme verification, CAD geometry, CNC Machines, etc.

What are the eligibility criteria for the ITI Computer Aided Manufacturing (CAM) Programmer Trade?

The eligibility criteria for the ITI Computer Aided Manufacturing (CAM) Programmer Trade requires students to have passed the Class 10th examination. Moreover, the student should be at least 14 years of age on the first day of their academic session.

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