Engineering Materials - Iron & Steel making

Engineering Materials - Iron & Steel making

Chaitanya Purohit

Consultant

$ 20

Beginner course for learners

Foundational Learning
Access to Study Materials
Self-Paced Learning

Trainers feedback
4
(28 reviews)
Chaitanya Purohit
Consultant
Course type
Instructor led live training
Course duration
2 Hrs
Course start date & time
Coming in Next Month
Language
English

Why enroll

Understanding the intricacies of iron and steel making can catapult your career in the metallurgical and manufacturing industries. With expertise in this area, you can transition into roles like Process Engineer, Quality Assurance Manager, or Production Manager, overseeing the production of high-quality steel products. Further advancements can lead to senior positions like Plant Manager, Technical Director, or Research and Development Lead, driving innovation in steel production and application. Additionally, this knowledge can also open doors to careers in related fields like materials science, welding engineering, or corrosion engineering, offering a wide range of opportunities for professional growth and advancement.

Opportunities that awaits you!

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Career opportunities

Course details

The major classifications of engineering materials include metals, polymers, ceramics, and composites. The important characteristics of the materials within each of these classes are discussed in this course, and use of material properties are also explained. Engineering design materials to meet required properties to design an eqipment & materials science plays an important role to understand the fundamental factors that influence the structure and properties of a material. such as thermodynamics, structural evolution, etc. This course is designed to provide in depth knowledge on various iron & steel making.

You will learn various parameters after completing this course -

1. What is industrial steel & Iron making

2. Types of making processes

3. Theoretical background behind each requirements which helps an engineer to understand the importance each making process.

4. An insight into the newly introduced methods, it's criteria and guidelines.

5. Bridging the gap between theoretical knowledge and practical application requirements.

6. University students who want to take up career in engineering or manufacturing department and wants to learn about the most widely used best practices and standard.

7. Experienced engineers who want to grow their career in engineering or production by understand the background of different types requirements

Course suitable for

Aerospace
Automotive
Chemical & Process
Civil & Structural
Mechanical

Key topics covered

Industrial Iron & steel Making in brief Iron making,
Steel making,
Modern processes,
Primary steel making,
Secondary steelmaking

Training details

This is a live course that has a scheduled start date.

Live session

Our Alumni Work At

Ex-Tata Steel , Precision Engineering Division , West Bengal university

Chittagong University Of Engineering And technology

ENGGENIOUS - (SAN Techno Mentors Private Limited)

Smt Kashibai Navale College of Engineering Pune

Govind Ballabh Pant Institute of Engineering and technology pauri garhwal

Pal college of technology and management

Paltech cooling towers and equipments limited

East Point College of Engineering and Technology

university of technology and applied science

Center of Skill Development for Employability and Entrepreneurship

Airbornics Defence And Space Private Limited

Why people choose EveryEng

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

Industry Veteran
Trainer Review

Halliburton

I had been looking for a reliable online platform for engineering courses, and EveryEng delivered beyond my expectations. The content is top-notch, the instructors are excellent, and the learning experience is seamless.

Harish Venugopal

Technical Professional

Bangalore, India

Advanced Upstream

EveryEng helped me bridge the gap between academia and industry. Their practical training and job placement services enabled me to secure a well-paying job and start building a successful engineering career!!

Ratish Kadam

Sr Engineer

Calgary, Canada

L&T

EveryEng is a game-changer in engineering education. The platform provides high-quality courses, interactive learning experiences, and excellent mentor support. It has significantly helped me grow in my engineering career.

Omkar Zolekar

Ass Manager, Projects

Mumbai, India

LyondellBasell

The learning experience at EveryEng is truly exceptional! The platform is well-organized, making it easy to find relevant courses. The detailed lessons and expert insights are very helpful and helped greatly to improve engineer's technical knowledge.

Suresh Nawandar

Global Technology Leader

The Hague, Netherlands

Lockwood

The real-world projects gave my team the hands-on experience they needed to stand out to our clients! A special thanks to EveryEng team.

Poonam Dalal

Senior Project Manager

Dallas, USA

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$ 20

- $ 0 Early bird discount

Coming in Next Month

Questions and Answers

Q: You're on the melt shop floor for first heat. The contractor hands over the ladle refractory package, and your search history still shows "ladle refractory pre commissioning inspection checklist steel plant". Before authorizing hot commissioning, what sequence actually reduces early lining failure risk?

A: This sequence catches moisture and installation defects before thermal shock drives spalling. B defers dry-out verification until damage is already done. C checks geometry but ignores free water and binder cure. D assumes paperwork replaces thermal conditioning.

Q: The BOF off-gas duct shows accelerated wall loss. You're googling "BOF off gas duct corrosion mechanism high CO CO2" while reviewing the MOC. Under high CO, cyclic temperature, and entrained FeO dust, what degradation mode dominates?

Q: A continuous caster mold shows longitudinal cracks near corners after a grade change. Your note says "continuous casting corner crack root cause peritectic steel". What root cause actually ties the symptoms together?

Q: During raw material planning, you search "blast furnace coke rate calculation kg per ton hot metal". If a blast furnace consumes 450 kg of coke to produce 1.5 t of hot metal, what is the coke rate?

Q: At sinter plant pre-commissioning, the datasheet says ignition hood temperature 1050°C but you measure 920°C at the hood outlet. You're searching "sinter plant ignition hood acceptance temperature criteria". What do you verify next before rejecting performance?

Q: A pickling line heat exchanger was specified as AISI 304, but PMI on-site reads 316 and corrosion is still observed. You're typing "pickling line heat exchanger material failure HCl". What explains the mismatch between material and performance?

Q: After a few heats, the EAF roof shows localized melting near electrode ports. Your search reads "EAF roof refractory failure around electrodes". What failure mode fits best?

Q: While tuning secondary metallurgy, you google "aluminum deoxidation calculation ppm oxygen steel". If molten steel contains 60 ppm dissolved oxygen, how much aluminum (wt%) is theoretically required for full deoxidation assuming 2Al + 3O → Al2O3?

Q: During FAT for a new tundish, the GA shows 70 mm impact pad thickness but you measure 62 mm installed. You're searching "tundish impact pad thickness tolerance acceptance". What action aligns with DFMEA thinking before SOP?

Q: Post-SOP, sporadic hydrogen flakes appear in heavy plate despite vacuum degassing. You're digging into "hydrogen flaking root cause steel despite VD". What root cause best fits when chemistry and soak time look correct?