TEXTILE MANUFACTURING | EveryEng

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Self-paced Advanced

TEXTILE MANUFACTURING

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2 enrolled

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FREE

345 min

Anytime

Hindi

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Engineering AcademyLearn Without Limits: Free Engineering Courses

Energy & Utilities

Production Engineering

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Volume pricing for groups of 5+

Why enroll

This course is ideal for textile engineering students, diploma holders, production supervisors, quality engineers, and industry professionals seeking a strong foundation in textile manufacturing processes. A thorough understanding of manufacturing techniques is essential for efficient production, quality control, and cost management in the textile industry.

Enrolling in this course helps learners:

Understand the complete textile production workflow
Develop skills in manufacturing, quality control, and process optimization
Prepare for careers in textile mills, garment industries, and export houses
Enhance knowledge of modern and sustainable manufacturing practices
Support higher studies and industry-oriented research

Your instructor

Engineering Academy

Engineer

Learn Without Limits: Free Engineering Courses

5+ yrs experience·India

Is this course for you?

You should take this if

You work in Energy & Utilities
You're a Production Engineering / Health, Safety & Environmental 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 Production Engineering
You need live interaction with an instructor

Course details

The Textile Manufacturing course provides an in-depth understanding of the end-to-end textile production process, starting from raw fibers to finished textile products. The course integrates principles of fiber science, yarn manufacturing, fabric formation, wet processing, and finishing technologies used in modern textile industries.

The course begins with an overview of natural and man-made fibers, their properties, and selection criteria for different applications. Learners then study spinning processes, including fiber preparation, drafting, twisting, and yarn formation. The course covers fabric manufacturing technologies such as weaving, knitting, and nonwoven production, explaining machine components, production parameters, and fabric structures.

Further modules focus on wet processing, including preparation, dyeing, printing, and finishing operations. Emphasis is placed on process control, quality assurance, productivity improvement, and sustainability in textile manufacturing. The course also introduces modern manufacturing systems, automation, and Industry 4.0 concepts applied to textile production.

By the end of the course, learners gain a holistic understanding of textile manufacturing operations and the skills needed to manage and optimize textile production systems.

SOURCE- Youtube [Syed ahmed khizar]

Course suitable for

Key topics covered

Introduction to textile fibers and their properties
Natural, man-made, and technical fibers
Fiber preparation and opening processes
Spinning systems and yarn manufacturing
Yarn properties and quality testing
Weaving technology and loom mechanisms
Fabric structures and weave designs
Knitting technology (weft and warp knitting)
Nonwoven fabric manufacturing
Fabric defects and quality control
Wet processing: preparation and dyeing
Textile printing fundamentals
Finishing processes and performance enhancement
Textile testing and quality assurance
Productivity, costing, and mill management
Automation and Industry 4.0 in textiles
Sustainable textile manufacturing practices
Health, safety, and environmental aspects

Course content

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

13 lectures5 hr 45 min

INTRODUCTION TO TEXTILE MANUFACTURING
14 min
TEXTILE FIBER CLASSIFICATION
21 min
Textile fiber and its Primary properties
8 min
TEXTILE FIBER SECONDARY PROPERTIES
23 min
TEXTILE FIBER DEGRADATION
6 min
FIBER FORMATION
14 min
INTRODUCTION TO YARN AND COTTON FROM FIELD TO RING SPUN YARN
41 min
CONCISE INTRODUCTION TO FABRIC FORMATION ( WEAVING) #fabric #textile #weavers
77 min
Concise Introduction to textile pretreatment
30 min
TEXTILE DYEING CONCISE LECTURE #dyeing #dyeingmachine #dyes
48 min
TEXTILE PRINTING CONCISE LECTURE
21 min
TEXTILE FINISHING CONCISE LECTURE
24 min
GARMENT MANUFACTURING CONCISE LECTURE
18 min

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Questions and Answers

Q: You're checking a dyeing line mass balance and end up searching 'calculate reactive dye salt dosage after feed TDS increase in textile dyeing'. The incoming cotton fabric rate is 1,200 kg/h. Target shade requires 60 g dye/kg fabric and NaCl at 50% of dye mass. Feedwater TDS drifted from 300 to 900 mg/L, contributing equivalent NaCl. What NaCl addition rate should the dosing skid now deliver?

A: A: Fabric basis is right, but it treats TDS as if it rides with fabric mass, not liquor flow. B: That's the pre-drift setpoint; it drops the feedwater term entirely. C: Dye is 72 kg/h, salt target 36 kg/h; extra TDS adds ~5.4 kg/h NaCl equivalent, so you back that out. D: Exhaustion affects uptake, not how much electrolyte you need in the bath.

Q: During SAT you Google 'textile stenter pre commissioning checklist airflow temperature fabric speed'. You're walking down a gas-fired stenter with recirculation fans and a new PLC. What sequence gives you a valid first heat-up without risking fabric scorch?

A: A: Airflow proven first, purge path open, then fuel—this matches burner management logic. B: Lighting before airflow violates purge requirements. C: Fabric in the oven before thermal mapping is asking for uneven heating. D: Leak tests are cold; doing them hot masks pressure decay.

Q: You notice on the DCS and search 'uneven dye shade across fabric width textile jet dyeing'. The left selvedge is consistently lighter, bulk shade is correct, liquor ratio unchanged. What root cause fits all observations?

A: A: Velocity asymmetry gives transverse shade variation without shifting average depth. B: That would wash the whole width out, not one edge. C: Skew shows as width distortion, not selective lightness. D: Hydrolysis hits the entire batch uniformly.

Q: Your lead asks you to confirm 'calculate steam consumption per kg fabric in textile drying stenter'. Evaporation load is 1.8 kg water/kg fabric. Steam is saturated at 6 barg with latent heat 2,050 kJ/kg. Overall heat efficiency is 68%. What's the steam rate per kg fabric?

A: A: 1.8×2257/2050 then adjusted by 0.68 lands here. B: Ignores energy balance entirely. C: Pulls in fuel HHV, wrong layer of the problem. D: Double-counts recoverable heat that isn't in the steam table term.