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Computer Integrated Manufacturing

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10 enrolled

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Trainers Rating: 4(5)
Course type: Watch to learn anytime
Duration: 1944 min
Start: Anytime
Language: English
Views: 1770

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Team EveryEngMechanical Engineering

Manufacturing & Industrial

Manufacturing Engineering

Why enroll

The Computer Integrated Manufacturing (CIM) course focuses on transforming modern manufacturing through the integration of computer systems, automation, and robotics. It helps participants learn how to optimize production processes, improve efficiency, and reduce operational costs. The course also provides hands-on exposure to industry-relevant software and tools used in advanced manufacturing. Participants will understand how to enhance product quality, boost productivity, and improve supply chain management using modern technologies.

Your instructor

Team EveryEng

Senior Engineer

Mechanical Engineering

Location: India

4Avg trainers rating

Course details

Computer Integrated Manufacturing (CIM) is a course that explains how computers are used to improve modern manufacturing processes. It helps industries connect different stages of production such as design, planning, manufacturing, and quality control through computer systems. In this course, learners understand how automation, robotics, and software work together to make production faster and more accurate. It also focuses on reducing human errors and improving product quality. Participants learn how machines, data, and systems communicate with each other in a smart factory environment. The course introduces important tools and technologies used in modern industries. It also helps students understand how to increase productivity while reducing production time and costs. By learning CIM, students gain practical knowledge about digital manufacturing systems. This course is useful for those who want to work in advanced manufacturing and automation industries. Overall, it provides a clear understanding of how technology is transforming the future of manufacturing.

Source: IIT Kanpur NPTEL (YouTube Channel)
Prof. Janakarajan ramkumar, Dept. of Mechanical & Design Program, IIT Kanpur

Course suitable for

Is this course for you?

Perfect for

You work in Manufacturing & Industrial
You're a Manufacturing Engineering / Industrial Engineering professional
You prefer self-paced learning you can revisit

Before you enrol

No prior experience needed for this course
Self-paced video, 1944 min — watch anytime

Ready for the next step?

Paid courses that build on what this one teaches.

Course curriculum

The course is readily available, allowing learners to start and complete it at their own pace.

50 lectures32 hr 24 min

Introduction to CIM
36 min
Introduction to CIM - Part 2
23 min
Production System
27 min
Automation In Manufacturing System
25 min
Automation Principles and Computer Aided Technologies
28 min
Computer Graphics - 01
32 min
Computer Graphics - 02
29 min
Computer Graphics - 03
31 min
Computer Graphics - 04
36 min
Geometric Modelling - 01
42 min
Geometric Modelling - 02
34 min
Computer Numerical Control - 01
27 min
Computer Numerical Control - 02
39 min
Computer Numerical Control - 03
61 min
Computer Numerical Control - 04
28 min
CNC Machining Center - 01
26 min
CNC Machining Center - 02
14 min
CNC Tooling
36 min
CNC Part Programming - 01
32 min
CNC Part Programming - 02
33 min
CNC Part Programming - 03
21 min
CNC Part Programming - 04
29 min
Laboratory Demonstration, Computer Aided Design -01
54 min
Laboratory Demonstration, Computer Aided Design -02
31 min
CAM Softwares
18 min
Laboratory Demonstration, CAM Softwares
55 min
Laboratory Demonstration, CNC Machining
23 min
Group Technology and Computer Aided Process Planning
54 min
Computer Aided Process Planning - 01
47 min
Computer Aided Process Planning - 02
62 min
Flexible Manufacturing System
57 min
Industrial Robotics
54 min
Programming Logical Controller
54 min
Automatic Identification and Data Capture
40 min
Computer Aided Quality Control
41 min
Computer Aided Quality Control - 02
42 min
Laboratory Demonstration Co-ordinate Measuring Machine
58 min
Rapid Manufacturing - 01
29 min
Rapid Manufacturing - 02
33 min
Laboratory Demonstration Rapid Manufacturing - 01
40 min
Laboratory Demonstration Rapid Manufacturing - 02
51 min
Laboratory Demonstration CAD using Fusion 360, an Introduction
52 min
Laboratory Demonstration CAD Using Fusion 360, Rendering and 3D printing
44 min
Material Handling and Identification
61 min
Laboratory Demonstration Plant Simulation Software - 01
23 min
Laboratory Demonstration Plant Simulation Software - 02
48 min
Laboratory Demonstration Plant Simulation Software - 03
37 min
Computers in Manufacturing Industry, current scenario - 01
57 min
Computers in Manufacturing Industry, current scenario - 02
43 min
Computers in Manufacturing Industry, current scenario - 03
47 min

Key topics covered

Introduction to CIM
Automation In Manufacturing System
Computer Graphics - 01
Computer Numerical Control - 01
CNC Machining Center - 01
CNC Tooling
Laboratory Demonstration, Computer Aided Design -01
CAM Softwares
Laboratory Demonstration, CNC Machining
Computer Aided Process Planning - 01
Flexible Manufacturing System
Industrial Robotics
Automatic Identification and Data Capture
Laboratory Demonstration Co-ordinate Measuring Machine
Rapid Manufacturing - 01
Material Handling and Identification
Laboratory Demonstration Plant Simulation Software - 01
Computers in Manufacturing Industry, current scenario - 01

Opportunities that await you!

Career opportunities

✎ Where this fits — what comes before, what comes next

Frequently asked questions

Q: You're reviewing a pre-startup checklist and searching "robot cell light curtain bypass during startup risk" after a punch list item was conditionally cleared. The light curtain is jumpered for teach mode, but production startup proceeds before the condition is re-verified. What physical consequence is the light curtain NOT protecting against in this state?

A: Governing principle: Presence-sensing safeguards only prevent motion when they can interrupt control power. Here, a jumpered light curtain still allows commanded motion, so it blocks neither unexpected starts nor high-speed traverse; it never addressed stored mechanical or electrical energy in the first place. Engineers often pick D because it's visible on the HMI, but that misapplies the safeguard’s scope to an energy isolation problem.

Q: Your lead asks you to sanity-check throughput and you Google "estimate AGV throughput pallets per hour simple calculation". A single AGV runs a loop between warehouse and CNC cells: 120 m round trip, average speed 1.5 m/s, plus 20 s load and 20 s unload. Order-of-magnitude, what’s the max pallets per hour?

A: Governing principle: Throughput is set by total cycle time, not peak speed. Travel time is 120/1.5 ≈ 80 s; add 40 s handling gives ~120 s per pallet, or 30/hr, then trim for control delays to land near the mid‑20s. Option C traps people who forget to add fixed load/unload time after doing the distance math correctly.

Q: You notice on the DCS and search "MES latency causing CNC buffer starvation". Network latency between MES and PLCs increases from 50 ms to 500 ms. What happens downstream, and what’s the right response?

A: Governing principle: Control loops tolerate latency poorly, planning layers tolerate it well. Here the PLC waits on MES confirmations, so added delay shows up as starvation; holding releases prevents oscillation while IT fixes latency. Option B appeals to those who know buffers help variability, but misapplies it across control layers where timing, not quantity, is failing.

Q: You're troubleshooting and type "CNC pallet changer stops mid-cycle hydraulic pressure ok". Symptoms: pallet changer halts mid-stroke, no hydraulic alarms, resumes after power cycle. What root cause fits best?

A: Governing principle: Intermittent, resettable faults point to feedback, not force generation. Hydraulics show pressure is fine and a reboot clears the fault, aligning with a sensor dropping out mid-travel. Option D tempts those thinking mechanically, but a hard interference wouldn’t clear with a power cycle.

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