Fusion Industrial Training

Industrial Automation Course

Build job-ready skills for smart factories

Hands-on labs Industry mentors Placement assistance

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Who Is This Course For?

Ideal Learners

• Final-year and recent graduates

  EEEECEMechanicalMechatronicsInstrumentation
• Diploma holders in related disciplines

  Technical education with foundation in electrical or mechanical systems
• Working professionals upskilling to controls

  From maintenance, production, and quality assurance roles
• Career switchers from IT/electrical backgrounds

  Leveraging transferable skills for industrial automation roles
• Freshers targeting first automation role

  Building foundational skills for entry-level positions

Prerequisites: Basics of electrical circuits and programming logic recommended.

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Technical

Innovative

Benefits & Why Choose Fusion

Key Benefits

• Hands-on labs with real PLCs, HMIs, Drives, and Sensors
• Industry-aligned curriculum mapped to real job roles
• Expert mentors providing personal attention in small batches
• Capstone project and portfolio review

Why Fusion

• Modern lab setups and SCADA workstations
• Interview preparation and 100% placement assistance
• Practical assessments and code reviews
• Strong alumni network and regular industry events

Lab Equipment

Curriculum

Placement

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BONUS

Free demo class + career counseling session

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Website

https://fusiontraining.in

Email

noida@fusiontraining.in

Phone / WhatsApp

08448808928 | 8851868521

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Practice Question Part 1

1. Provide a practical scenario where the application of a PLC (Programmable Logic Controller) is appropriate.
2. What are the reasons for opting for relays instead of PLCs in certain situations?
3. In brief, describe the fundamental characteristics of a PLC.
4. Enumerate the benefits of using a PLC in comparison to traditional relays.
5. Discuss instances where PLCs can efficiently substitute multiple components, highlighting both favorable and unfavorable applications.
6. Could you explain the rationale behind representing outputs in ladder logic as “coils”?

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Answer :

• An example of where a PLC could be used is in an industrial manufacturing process where it needs to control and automate various tasks such as machinery operation, temperature regulation, and material handling.
• Relays might be preferred over PLCs in situations where the control logic is simple, cost is a significant concern, and there’s no need for the flexibility and scalability that PLCs offer. Relays are also used in areas where extreme environmental conditions or electrical noise could affect PLC performance.
• A PLC, or Programmable Logic Controller, is a specialized industrial computer used for controlling and automating various processes in manufacturing and industrial environments. It consists of a programmable processor, input and output modules, and a programming environment to create control logic.
• Advantages of using a PLC over relays include:
  • Flexibility: PLCs are easily programmable and can adapt to changing requirements.
  • Space and Wiring Savings: PLCs consolidate control functions, reducing the need for extensive wiring and space.
  • Diagnostics: PLCs offer diagnostic capabilities to detect faults and errors.
  • Remote Monitoring: PLCs allow for remote monitoring and control.
  • Scalability: PLC systems can be expanded or modified without significant rework.
• PLCs can effectively replace various components such as timers, counters, and relays. Good applications include complex manufacturing processes, conveyor systems, and automotive assembly lines. Bad applications might include very simple control tasks that can be managed with basic relays, where the cost of a PLC might outweigh the benefits.
• Ladder logic outputs are represented as “coils” because the graphical language of ladder logic is derived from the electrical control panel schematics used in traditional relay-based control systems. In electrical diagrams, coils represent devices like relays or solenoids, and this convention was carried over into ladder logic to maintain familiarity for engineers and technicians who were transitioning from relay-based systems to PLCs. The term “coil” in ladder logic corresponds to the energized output of a relay or a similar control device.