Tool & Die Maker

ITI Tool & Die Maker Syllabus (English)

Course Overview

  • Trade Name: Tool & Die Maker

  • Duration: 2 Years (4 Semesters)

  • NSQF Level: Level 5

  • Eligibility: 10th Grade Pass with Science and Mathematics

  • Objective: To train candidates in designing, manufacturing, and maintaining precision tools, dies, jigs, and fixtures used in manufacturing industries, preparing them for roles as tool and die makers, CNC operators, or self-employment in precision engineering services.

  • Certification: National Trade Certificate (NTC) by NCVT


Detailed Syllabus

Semester 1

Trade Theory

  • Introduction to Tool & Die Making: Role in manufacturing, types of tools (cutting, forming, gauging), dies (blanking, piercing).

  • Safety Practices: PPE (safety goggles, gloves), machine guarding, workshop hazard management.

  • Engineering Materials: Properties of steel, cast iron, non-ferrous metals; heat treatment basics.

  • Hand Tools: Files, hacksaws, chisels, hammers; their uses and maintenance.

  • Measurement Tools: Vernier calipers, micrometers, dial gauges; accuracy standards (±0.01 mm).

  • Workshop Machines: Lathe, drilling, milling machines; basic operations and setups.

  • Drawing Basics: Orthographic projections, sectional views, dimensioning standards.

Trade Practical

  • Safety Drills: Using PPE, practicing fire evacuation, securing workstations.

  • Filing Practice: Filing flat surfaces, achieving squareness (±0.05 mm).

  • Measurement: Using vernier calipers, micrometers to measure components accurately.

  • Marking: Marking lines/centers on metal using scribers, punches, and surface plates.

  • Hand Tool Operations: Sawing, chipping, scraping mild steel workpieces.

  • Drilling: Drilling holes on drill press, maintaining depth accuracy (±0.1 mm).

  • Project Work: Fabricate a simple tool (e.g., punch) with filing and drilling, ensuring dimensional accuracy.

Hours: Theory: 160 hours | Practical: 240 hours


Semester 2

Trade Theory

  • Precision Machining: Lathe operations (turning, threading), milling (slot cutting), grinding basics.

  • Jigs and Fixtures: Types (drilling, milling jigs), design principles, applications.

  • Cutting Tools: Geometry of single-point tools, drills, milling cutters; tool angles.

  • Metrology: Surface plates, angle plates, gauge blocks; calibration techniques.

  • Heat Treatment: Annealing, hardening, tempering; effects on tool life.

  • Fasteners: Types of screws, bolts, nuts; thread standards (metric, BSW).

  • CAD Basics: Introduction to AutoCAD, 2D drafting for tool design.

Trade Practical

  • Lathe Operations: Turning cylindrical parts, cutting threads, achieving tolerances (±0.02 mm).

  • Milling Practice: Milling slots, keyways on mild steel, ensuring flatness.

  • Grinding: Surface grinding flat plates, maintaining parallelism (±0.01 mm).

  • Jig Assembly: Assembling a drilling jig, aligning bushings accurately.

  • Heat Treatment: Hardening and tempering small tools, checking hardness.

  • CAD Drafting: Drawing simple tool components (e.g., punch-die set) in AutoCAD.

  • Project Work: Manufacture a drilling jig for a 50x50 mm plate with precise hole placement.

Hours: Theory: 160 hours | Practical: 240 hours


Semester 3

Trade Theory

  • Die Design: Blanking, piercing, forming dies; die components (punch, die block, stripper).

  • CNC Machining: CNC lathe/milling basics, G-code, M-code programming.

  • Tool Design Standards: Tolerances, fits (clearance, interference), IS/ISO standards.

  • Hydraulics and Pneumatics: Principles in die automation, actuators, valves.

  • Press Tools: Types of presses (mechanical, hydraulic), tonnage calculations.

  • Quality Control: Inspection methods, CMM, hardness testing, defect analysis.

  • CAD/CAM: 3D modeling basics, CAM toolpath generation for dies.

Trade Practical

  • CNC Operations: Setting up CNC lathe, machining simple die components.

  • Die Manufacturing: Fabricating a blanking die punch, ensuring alignment (±0.01 mm).

  • Press Setup: Installing dies on a press, adjusting stroke and clearance.

  • Tool Inspection: Measuring die components with CMM, verifying tolerances.

  • Hydraulic Systems: Assembling simple hydraulic circuits for die automation.

  • CAD/CAM Practice: Designing a die in CAD, generating toolpaths in CAM software.

  • Project Work: Fabricate a blanking die for a 2 mm steel sheet, test for clean cuts.

Hours: Theory: 160 hours | Practical: 240 hours


Semester 4

Trade Theory

  • Advanced Die Making: Progressive dies, compound dies, transfer dies; design challenges.

  • Mold Making: Injection molds, compression molds; parting line, runner systems.

  • CNC Programming: Multi-axis CNC machining, complex G-code programming.

  • Tool Maintenance: Repairing worn dies, regrinding tools, preventive maintenance.

  • Production Planning: Tool room workflow, cost estimation, lead time management.

  • Entrepreneurship: Starting a tool-making workshop, market trends in precision engineering.

  • Industry 4.0: IoT in tool rooms, smart manufacturing basics.

Trade Practical

  • Progressive Die Work: Manufacturing a progressive die stage, ensuring strip feed accuracy.

  • Mold Fabrication: Machining a simple injection mold core, polishing cavities.

  • CNC Programming: Writing G-code for a complex die component, machining on CNC mill.

  • Tool Repair: Refurbishing a worn punch, regrinding cutting edges.

  • Quality Assurance: Conducting die trials, analyzing defects, documenting results.

  • Automation Practice: Integrating sensors in dies for automated operation.

  • Project Work: Design and fabricate a progressive die for a small component, conduct production trial.

Hours: Theory: 160 hours | Practical: 240 hours


Additional Components

  • Workshop Calculation and Science

    • Calculations: Tool geometry, die clearance, press tonnage, machining time.

    • Science: Stress/strain in dies, thermal expansion, friction in machining.

    • Hours: 80 hours/year

  • Engineering Drawing

    • Drawings: Detailed tool/die drawings, assembly drawings, exploded views.

    • Hours: 80 hours/year

  • Employability Skills

    • Communication: Technical reporting, client discussions, team coordination.

    • IT Literacy: CAD/CAM software, ERP systems, online tool catalogs.

    • Soft Skills: Problem-solving, time management, resume writing, interview prep.

    • Hours: 60 hours/year


Assessment and Certification

  • Exams:

    • Theory: Written exams per semester (MCQs, descriptive questions).

    • Practical: Fabricating tools/dies, CNC programming, quality inspections.

  • Evaluation Criteria: Precision in machining, die functionality, adherence to tolerances, safety practices.

  • Certification: NCVT National Trade Certificate (NTC), globally recognized.


Career Opportunities

  • Employment: Tool and die maker, CNC operator, quality inspector in automotive, aerospace, or manufacturing industries.

  • Self-Employment: Precision tool workshop, die repair services, freelance CNC programming.

  • Further Studies: Diploma in Tool Engineering, certifications in CAD/CAM or CNC programming.

Trade Type