Instrumentation Design and Detailed Engineering Mastery | EveryEng

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Self-paced Advanced

Instrumentation Design and Detailed Engineering Mastery

4(34)

8 enrolled

3503 views

$ 150

1067 min

Anytime

English

3503 views

Sawrabh RajSr Instrumentation Design Engineer, Global Trainer- Instrumentation Design

Electronics & Instrumentation

Instrumentation Engineering

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Why enroll

Participants join this course to gain hands-on expertise in designing and implementing industrial instrumentation systems, apply theory to real-world projects, and ensure compliance with international standards. It enhances their career prospects by improving technical skills, problem-solving abilities, and confidence in managing complex projects. The course also prepares them for leadership roles by teaching project management, coordination, and industry best practices. Overall, it equips professionals with the tools to excel in automation, process control, and instrumentation engineering.

Your instructor

Sawrabh Raj

Instrumental Design Engineer

Sr Instrumentation Design Engineer, Global Trainer- Instrumentation Design

15+ yrs experience·India

Is this course for you?

You should take this if

You work in Electronics & Instrumentation
You're a Instrumentation Engineering professional
You have 3+ years of hands-on experience in this field
You prefer self-paced learning you can revisit

You should skip if

You're new to this field with no prior experience
You need a different specialisation outside Instrumentation Engineering
You need live interaction with an instructor

Course details

The Online Training Course on Instrumentation Design and Details Engineering is designed for engineers, technicians, and professionals who want to understand how to design and implement instrumentation systems effectively. The course covers the fundamentals of sensors, transmitters, controllers, and other instrumentation devices used in industries. Participants will learn how to create detailed engineering drawings, select the right instruments, and design control systems for process automation. Practical examples and case studies are included to help understand real-world applications. By the end of the course, learners will be able to interpret P&ID diagrams, develop instrument datasheets, and ensure proper installation and maintenance practices. The training also emphasizes safety standards, industry best practices, and troubleshooting techniques. It is ideal for those working in oil & gas, chemical, power, or manufacturing industries. No prior advanced knowledge is required, though basic engineering concepts are helpful. The course combines theory, practical exercises, and interactive sessions for effective learning.

Course suitable for

Key topics covered

Bonus Module
Introduction Lecture-1
Instrumentation Design Lecture-2
Hazardous Area Classification
Study of Pressure Instruments
Thermowell Details
Control Valves
Control Valve-Part 2
RFQ TBE VDR
MTO Calculation

Course content

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

23 lectures17 hr 47 min

Bonus Module
10 min
Introduction Lecture-1
35 min
Instrumentation Design Lecture-2
62 min
Module 3: Hazardous Area Classification
56 min
Module 4 P&ID
52 min
Module 5 Instrumentation Index List
52 min
Module 6 Study of Pressure Instruments
53 min
Module-6A Pressure Instruments Continued...
57 min
Module 6.2 Temperature Instruments
46 min
Module 6.2A Thermowell Details
51 min
Module 6.3 Level Instruments
45 min
Question Answer & Flow Instru Start 29th Jan
34 min
Module 6.4 Flow Instruments Continued
43 min
Module 6.4 Flow Instruments continued
47 min
Module 6.5: Pressure Safety Valves
43 min
Module 6.6: Control Valves
48 min
Module 6.7:Control Valve-Part 2
44 min
Module 7: Instrumentation Cables and Wires
92 min
Module 8: Overall Plot Plan- Cutting of Sectional Drawing
36 min
Module 8.1 FGS Instruments Specification
34 min
Module 9: Hook Up Drawing
52 min
Module 10: RFQ TBE VDR
43 min
Module 11: MTO Calculation
32 min

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Why people choose EveryEng

Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities-all in a flexible and supportive environment.

$150

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Questions and Answers

Q: You're rechecking a SIL calc after site data comes back, searching "analyser sample system transport lag SIL impact". The sample conditioning skid introduces a measured 4‑minute transport lag, while the SRS assumed 90 seconds. The process hazard is a fast exotherm. What action best aligns the design with IEC 61511 intent?

A: A: PFDavg isn't the only term. Response time sits outside the math but inside the hazard window. That's the miss. B: Dead time eats into risk reduction. If it breaks the scenario, you either shorten it or bypass it with a faster sensor or SIF. C: Gain doesn't cancel transport lag; it just drives oscillation. D: Slapping margin on paper doesn't fix a late trip.

Q: You're staring at a GA and instrument list mismatch and googling "analyser shelter P&ID sample probe symbol meaning". The P&ID shows a fast-loop probe with a heat-traced line, but the instrument list calls up a standard insertion probe with no tracing. What do you flag first?

A: A: Commercial status doesn't override design intent. That's how mismatches get buried. B: P&ID defines process function. If the symbol shows fast loop and tracing, the list is wrong and needs formal correction. C: Dual configs create install ambiguity and spares pain. D: Tracing changes lag and condensation risk; it's not cosmetic.

Q: While checking a vendor calc, you search "sample line transport time calculation gas analyser". A gas analyser pulls 2 Nl/min through a 30 m, 6 mm ID tube at near-atmospheric pressure. What is the approximate transport lag?

A: A: Normal liters aren't actual at line conditions; velocity is overstated. B: Tube volume is ~0.85 liters. At ~0.21 l/min actual, you're near four minutes. That's the math. C: Flow regime doesn't magically cut residence time by half. D: No extra volumes were added; padding without basis inflates lag.

Q: You're selecting tubing and type "316 stainless chloride SCC temperature limit". The analyser sample sees wet gas with 200 ppm chlorides at 70°C. Which material choice best fits?

A: A: Temperature plus chlorides is the SCC trigger for 300-series SS. That's the trap. B: Wet gas and oxygen will chew carbon steel quickly. C: Duplex pushes SCC threshold way out; that's why it's used here. D: Copper doesn't like many process gases and creates contamination issues.