Denim jeans which are dyed with natural or synthetic indigo, are one of the most popular garments among all the age groups and approximately one billion pairs of jeans are being produced in one year. Traditionally, denim is woven with cotton in twill weave (warp face), in which the warp is blue, and the weft is white. Dyeing of denims is usually performed with pure indigo, or indigo dye mixed with a sulphur dye to decrease the costs which is caused by the expensive indigo dye. Indigo dye is quite popular because it washes down to bright blue shades without staining any of the white weft yarns.

Most of the denim jeans or other denim materials are subjected to a wash treatment to get a slightly worn look. In the traditional stonewashing technique, which is done by pumice stone, the blue denim is faded out by an abrasive action of the stones on the garment surface. This process removes some of the indigo dye. Stonewashing whereas added a whole new dimension to the denim garments in the late 1970s: the process facilitated the artificial ageing of denim fabrics which imparted a fashionably aged look. As the name ‘stonewashing’ suggests, the blue jeans were washed with pumice stones to give a faded look. However, the usage of pumice stones has many limitations, like damage of the machine parts, blockage of the drainage system and difficulty in removal of the residues. Moreover, too much abrasion can damage the fabric, particularly the hems, seams, and waistbands.

The finishing process of denim fabric and garments has been revolutionized by the application of enzymes as an alternative to pumice stonewashing process. Currently the cellulolytic enzymes are applied in textile processes where mechanical action is always present like in jets or rotating drum washers. Cellulase treatment of cotton/denim fabrics is an eco-friendly way of improving their property. It is already recognized that cellulases with strong EG activity is preferred for achieving the worn-out look of denims and this effect is best obtained in machines that provide fast beating action. It is an obvious advantage in letting out pumice stone and the possibility of significantly increasing the capacity of the laundry, that convince people to use biostoning. These advantages are obtained at a lower or similar cost per unit compared to the traditional stonewashing methods.

Cellulase enzymes were introduced in the 80s to assist denim washing to get a faded and abraded look different from what is traditionally provided by pumice stones. Cellulase enzyme fastens the abrasion by a process known as ‘bio stone washing’. The use of these enzymes allows the denim garment washing procedure to be carried out under mild conditions without the use of pumice stones and other harsh chemical agents. As a result of this process, different visual effects may also be fused on fabrics. A small amount of enzyme can replace several kgs of pumice stones. It is now feasible to fade a denim fabric to a greater degree without any possibility of damaging the garment. Productivity can also be increased because the laundry machines contain lesser stones and more garments. There is also no sediment in the wastewater so there will be reduced block drains.

Enzymes are proteins in which amino acids are linked to each other through peptide bonds in a particular sequence. Enzymes are universally present in all living systems either in animals or plants.

Enzyme used for Denim cloth and garment washing prevalent in the market is of SWGR cognis/ Hankel compouny.

Enzyme for Denim washing is gaining immense eminence is modern times which is water soluble. The specialty of this Enzyme is that while washing denim pant with it Denim colour does not come on the pocket lining i.e. there is no back staining on the pocket lining of Denim cloth.

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Technical textiles are textile material and products manufactured primarily for their performance and functional properties rather then aesthetic or decorative purpose. Aesthetic properties are not much important for the Technical Textiles. The performance and functional properties are in sense with the agri to aerospace application. Based on the
end uses, fibre selection to the method of processing are the keys to new product development in the textile arena. Over all growth rates of Technical Textiles in the world are about 4.0%per annum but the apparel and home textiles are at the rate of 1.0%.

Classification of technical textiles

Technical textiles application cycle is shown in the figure 1,it gives a vivid picture on the divisions of the technical textiles, which is a self-explanatory. Some of the major divisions are discussed below.

Agro Textiles:

Textiles used in Agriculture is termed as agro textiles. The essential properties required are Strength, elongation, stiffness, porosity, bio-degradation, resistance to sunlight and resistance to toxic environment. The applications includes all activities concerned with the growth and harvesting of live products and foodstuffs, such as gardening and land scaping, agriculture, forestry, animal husbandry and in fences.

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The uniform segment by definition enforces employees to wear a specified set of clothes for work and comprises basic and protective workwear. Basic workwear includes traditional workwear typically worn across industries such as the industrial sector, healthcare, hospitality, defense and police etc. Protective workwear includes protective garments used for their functionality such as fire retardant, bacterial resistant and bullet proof apparel. They are largely used in pharmaceutical, defense, engineering, steel, mining, fire services etc.

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Fats and oils are one of the most energy-rich food materials, which have the highest caloric values compared to other nutritional components. Current processes for the production of structured triacylglycerols (TAGs) from vegetable and animal oil focus on enzymatic transesterification to create the novel fat replacements. TAGs and human milk fat substitutes have been synthesized by enzymatic catalysis in many studies. Compared with the chemical methods, enzymatic pproaches for lipid modification are more attractive due to the production of desirable acyl moieties or esters via specific enzymatic catalysis. Enzymatic processes are environmentally friendly and can be applied under mild conditions, ensuring greater product safety. Currently, organic solvents with low water content are usually employed to improve enzyme performance, which is important to protect or controlacyl group migration to ensure a desired product synthesis.

INTRODUCTION
SPECIES OF SILK WORM
CHARACTERISTICS AND APPLICATION OF PUPAE OIL
CHEMICAL COMPOSITION OF SILKWORM PUPAE
MINERAL COMPOSITION OF SILKWORM PUPAE MEAL
MICROENCAPSULATION
AND PROPERTIES OF SILKWORM PUPAE OIL
USES AND APPLICATION OF SILKWORM PUPA OIL
USES AND APPLICATION FOR SILKWORM PUPAE
OVERVIEW OF SERICULTURE IN INDIA
MANUFACTURING PROCESS OF SOLVENT EXTRACTION PLANT
(SLIK WORM PUPAE)
PROCESSING AND OPERATING DETAILS OF PUPAE OIL EXTRACTION
PROCESS FLOW DIAGRAM
EXTRACTION OF PUPAE OIL FROM PUPAE POWDER
PURIFICATION OF PUPAE OIL
EXTRACTION OF THE OAK SILKWORM PUPAL OIL USING
SUPERCRITICAL CARBON DIOXIDE METHOD
ANALYSIS OF EXTRACTED PUPAL OIL
INVESTIGATION AND ANALYSIS OF SILKWORM PUPAE AS A PROTEIN SUPPLEMENT IN POULTRY FEED
DETAILS OF BATCH TYPE EXTRACTION PLANT
PLANT LAYOUT
PRINCIPLES OF PLANT LAYOUT
PLANT LOCATION FACTORS
EXPLANATION OF TERMS USED IN THE PROJECT REPORT
PROJECT IMPLEMENTATION SCHEDULES
SUPPLIERS OF PLANT AND MACHINERY
SUPPLIERS OF RAW MATERIALS

APPENDIX – A:

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

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Common facility centre for yarn dyeing provides good scope for new entrepreneur as well as established entrepreneurs.

The fact that dyes in solution in the dye bath leave the bath and are sobned by the fibre/yarn material during the dyeing process has been of interest to chemist and physicists for many years.   Theories  of  dyeing  the  describe  the  Sorption   (or desorption)  process and the resulting dye-fiber bonds using  the tools of thermodynamics have increased in  complexity  over  the year. Further more, it must be recognized that the dyeing process in dynamic in nature. It normally entails changes in the dyeing temperature the dye concentration the bath composition  and  the fiber structure.

Affinity and diffusion are fundamental aspect of the dyeing process. The former describes the force by which the dye is attracted by the fiber and the latter describes the speed with which it travels within the fiber/yarn a from areas  of  higher concentration to areas of lower concentration. Alone or together with fiber characteristics, affinity and diffusion determine the speed of dyeing, its temperature  dependency,  the  equilibrium exhaustion of the dye, and some of its fastness properties.

Two    fundamental    dyeing   processes    have    been distinguished, the  nonionic and the ionic dyeing  process.  The former refers to the dyeing of  synthetic  fibers  such   as polyester, nylon and triocetate by disperse dye.

INTRODUCTION
PROPERTIES OF POLYESTER FIBRES
PROPERTIES OF DISPERSE DYES
DISPERSE DYES AND ITS CLASSIFICATION
USES AND APPLICATION
B.I.S. SPECIFICATION
GUIDELINES FOR IMPLEMENTATION OF THE COMMON FACILITY CENTRE
MARKET SURVEY
MAJOR PLAYERS IN TEXTILE INDUSTRY
DYES USED IN POLYESTER YARN DYEING
PROCESS OF MANUFACTURE OF POLYESTER YARN DYEING
PREPARATION FOR DYEING OF POLYESTER YARN
PROCESSING DETAILS AND MECHANISM OF POLYESTER DYEING
METHED OF DISPERSE DYEING
POLYESTER DYEING RECIPE
STAGES AND PARAMETERS IN POLYESTER YARN DYEING
SEQUENCES IN POLYESTER YARN DYEING
PROCESS FLOW DIAGRAM
METHOD OF NYLON YARN DYEING
PROCESS FLOW DIAGRAM
DETAILS OF YARN CONDITIONING
PLANT LAYOUT
SUPPLIERS OF RAW MATERIALS FOR YARN DYEING
SUPPLIERS OF PLANT & MACHINERY FOR YARN DYEING

APPENDIX – A :

1.       COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

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The art of dyeing is a branch of applied chemistry in which a severe use of both physical and chemical principle is made in order to bring about a permanent union between the dyes and the fibres.

True dyeing can only take place when the dyeing is in solution and /or finally divided or dispersed colloidal condition and the fibers are subjected to this dye in solution condition and then this dye being rendered insoluble or fixed by some means, when absorbed upon or within the fibers, or can be direct contact with the fibers. There must exist some marked physico-chemical affinity between the fibers and the dye which would naturally depend upon the respective properties of both.

The local application of colour is carried out by some form of printing, and the greater part of textile printing concerns woven cotton piece goods, the process is sometimes called calico printing, at the same time it must be released that very considerable quantities of rayon’s are printed as well as small amounts of silk and wool.

The organmentation of the fabric by printing coloured designs falls into two broad classes, in the first, there is a colored design or pattern on a white background, whereas in the second , the background is colored and carries a white design or a pattern of a different colour or shade. In accordance with these effects, the print is classified by its style, this term does not mean the design or the chemical process, it simply refers to the produced by the direct application of the colour to the fabric. In the direct style, the suitably thickened colour is applied directly to the cloth by printing, a variation of the direct style is to print the cloth directly with a mordant and then dye the material, when the unprinted portion will remain uncoloured.

The resist style, as its name implies, comes from printing the material with a substance which will resist dyeing later and hence produce a pattern on a coloured ground. The discharge style depends on dyeing the fabric first and then removing the colour in selected areas i.e. descharging it is the discharging medium may also contain another colour which does not discharge, and in this manner it replaces, the colour originally situated on the fabric.

The term finishing in its widest sense has been held to cover all the processes which fabrics undergo after eaving the loan or knitting machine, from this stand point, finishing would include bleaching, and dyeing, which, indeed, are some times regarded as wet finishing, processes.

The object of finishing is to improve the attractiveness and /or serviceability of the fabric. A more restricted view of finishing is that of the third and final stage of the treatment of woven or knitted fabrics to prepare them for the consumer, bleaching a colouring from the fist and seconds stages. Even this definition, however, is open to criticism for some fabrics are not bleached and others are not dyed or printed again, many finishing operations, such as the creeping of silk and rayon, the mercerizing of cotton the crabbing of wool and the cutting of velvets, from part of the first phase of fabric treatment. Subject of these corrections, finishing, is best regarded as the final stage is the embellishing of the fabrics.

The textile dyeing industry consumes large quantities of water and produces large volumes of wastewater from different steps in the dyeing and finishing processes. Wastewater from printing and dyeing units is often rich in color, containing residues of reactive dyes and chemicals, and requires proper treatment before being released into the environment. The toxic effects of dyestuffs and other organic compounds, as well as acidic and alkaline contaminants, from industrial establishments on the general public are widely accepted. Increasing public concern about environmental issues has led to closure of several small-scale industries.

Interest in ecologically friendly, wet-processing textile techniques has increased in recent years because of increased awareness of environmental issues throughout the world. Consumers in developed countries are demanding biodegradable and ecologically friendly textiles. Cotton provides an ecologically friendly textile, but more than 50% of its production volume is dyed with reactive dyes. Unfortunately, dyes are unfavorable from an ecological point of view, because the effluents generated are heavily colored, contain high concentrations of salts, and exhibit high biological oxygen demand/chemical oxygen demand (BOD/COD) values.

In dyeing textiles, ecological standards are strictly applied throughout processing from raw material selection to the final product. This has become more critical since the German environmental standards regarding dye effluents became effective. The main challenge for the textile industry today is to modify production methods, so they are more ecologically friendly at a competitive price, by using safer dyes and chemicals and by reducing cost of effluent treatment/disposal. Recycling has become a necessary element, not because of the shortage of any item, but because of the need to control pollution. There are three ways to reduce pollution: (1) use of new, less polluting technologies; (2) effective treatment of effluent so that it conforms to specified discharge requirements; and (3) recycling waste several times over before discharge, which is considered the most practical solution.

• INTRODUCTION
• NEED OF THE FINISHING OF FABRIC
• B.I.S. SPECIFICATION
• MARKET SURVEY
• MAJOR PLAYERS IN TEXTILE INDUSTRY
• MANUFACTURING PROCESS
• DETAILS OF BLEACHING PROCESS
• DETAILS OF DRYING PROCESS
• DETAILS OF DYEING PROCESS
• FINISHING OF CLOTH
• APPLICATION OF SYNTHETIC RESINS
• WATER REPELLENT FINISHING
• FIRE PROOF
• DETAILS OF DIFFERENT TEXTILE OPERATION
• EFFLUENT TREATMENT IN TEXTILE
• MEMBRANE PROCESSES
• PRINCIPLES OF PLANT LAYOUT
• PLANT LOCATION FACTORS
• EXPLANATION OF TERMS USED IN THE PROJECT REPORT
• PROJECT IMPLEMENTATION SCHEDULES
• SUPPLIERS OF PLANT AND MACHINERY
• SUPPLIERS OF RAW MATERILS

APPENDIX – A :

1. COST OF PLANT ECONOMICS
2. LAND & BUILDING
3. PLANT AND MACHINERY
4. FIXED CAPITAL INVESTMENT
5. RAW MATERIAL
6. SALARY AND WAGES
7. UTILITIES AND OVERHEADS
8. TOTAL WORKING CAPITAL
9. COST OF PRODUCTION
10. PROFITABILITY ANALYSIS
11. BREAK EVEN POINT
12. RESOURCES OF FINANCE
13. INTEREST CHART
14. DEPRECIATION CHART
15. CASH FLOW STATEMENT
16. PROJECTED BALANCE SHEET

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A disposable diaper consists of an absorbent pad sandwiched between two sheets of nonwoven fabric. The pad is specially designed to absorb and retain body fluids, and the nonwoven fabric gives the diaper a comfortable shape and helps prevent leakage. These diapers are made by a multi-step process in which the absorbent pad is first vacuum - formed, then attached to a permeable top sheet and impermeable bottom sheet. The components are sealed together by application of heat or ultrasonic vibrations. Elastic fibers are attached to the sheets to gather the edges of the diaper into the proper shape so it fits snugly around a baby's legs and crotch. When properly fitted, the disposable diaper will retain body fluids which pass through the permeable top sheet and are absorbed into the pad.

Disposable diapers are a relatively recent invention. In fact, until the early 1970s mothers had no real alternative to classic cloth diapers. Cotton diapers have the advantage of being soft, comfortable, and made of natural materials. Their disadvantages include their relatively poor absorbency and the fact that they have to be laundered. Disposable diapers were developed to overcome these problems. The earliest disposables used wood pulp fluff, cellulose wadding, fluff cellulose, or cotton fibers as the absorbent material. These materials did not absorb very much moisture for their weight, however. Consequently, diapers made from these materials were extremely bulky. More efficient absorbent polymers were developed to address this issue.

Since the 1970s, disposable diaper technology has continued to evolve. In fact, nearly 1,000 patents related to diaper design and construction have been issued in the last 25 years. Today's diapers are not only highly functional, they include advanced features such as special sizing and coloring for specific gender and age, color change indicators to show when the child is wet, and reattachable VelcroTM-type closures. These innovations have enabled disposables to capture a large share of the diaper market. In 1996, disposable diaper sales exceeded $4 billion in the United States alone. Proctor and Gamble and Kimberly Clark are the two largest brand name manufacturers, and their sales account for nearly 80% of the market. Private label manufacturers that produce store brands and generic diapers account for most of the remaining 20%.

• PRODUCT INTRODUCTION
• USES AND APPLICATIONS
• PRODUCT (DIAPER) ANALYSIS
• TYPES OF DISPOSABLE DIAPER
• PROPERTIES
• MARKET SURVEY
• PRODUCTION OF DIAPERS
• IMPORT AND EXPORT OF DIAPER
• INSTALLED CAPACITY, UTILIZATION AND PRODUCTION OF DIAPER
• APPARENT CONSUMPTION OF DIAPERS
• ESTIMATED DEMAND
• DEMAND SUPPLY GAP
• OVERVIEW OF BABY DIAPER IN INDIA
• GLOBAL MARKET POSITION OF BABY DIAPER
• MANUFACTURER & EXPORTER OF DISPOSABLE BABY DIAPERS
• B.I.S SPECIFICATION (BABY DIAPERS)
• RAW MATERIALS DESCRIPTION & SPECIFICATIONS
• PRESSURE SENSITIVE ADHESIVE
• SPECIFICATIONS OF THE RAW MATERIALS
• MANUFACTURING PROCESS OF DIAPER (ADULT AND BABY)
• PROCESSING DETAILS OF DIAPER MANUFACTURE
• SEQUENCES OF OPERATION OF BABY DIAPERS MANUFACTURE
• PROCESS FLOW DIAGRAM
• WASTE AND QUALITY CONTROL
• PRECIOUS BABY DIAPER
• DIAPER FOR MALE BABY
• PLANT LAYOUT
• CONSULTANT FOR SETTINGUP THE DISPOSABLE DIAPER PROJECTS
• SUPPLIERS OF PLANT AND MACHINERY
• SUPPLIERS OF PLANT AND MACHINERY (IMPORTED)
• SUPPLIERS OF RAW MATERIALS
• MANUFACTURERS OF NON WOVEN FABRIC
• THE FOLLOWING TYPES ARE MULTI-FUNCTION LINES:
YOU CAN SHIFT THE FUNCTION TO THE DIAPER FUNCTION
• CH NON – FOOD IMPORT – EXPORT CORP.

APPENDIX – A :

1. COST OF PLANT ECONOMICS
2. LAND & BUILDING
3. PLANT AND MACHINERY
4. FIXED CAPITAL INVESTMENT
5. RAW MATERIAL
6. SALARY AND WAGES
7. UTILITIES AND OVERHEADS
8. TOTAL WORKING CAPITAL
9. COST OF PRODUCTION
10. PROFITABILITY ANALYSIS
11. BREAK EVEN POINT
12. RESOURCES OF FINANCE
13. INTEREST CHART
14. DEPRECIATION CHART
15. CASH FLOW STATEMENT
16. PROJECTED BALANCE SHEET

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The jute industry is labor intensive and contributes about Rs.1,200 crores annually to the export earnings.

Indian Jute Industry

Jute, the Golden Fiber as it is called, is a plant that yields a fiber used for sacking and cordage. Known as the raw material for sacks the world over, jute is truly one of the most versatile fibers gifted to man by nature that finds various uses in the form of Handicrafts. Next to cotton, jute is the cheapest and most important of all textile fibers. Jute is being cultivated in India for centuries. The landmark in the history of jute industry in India dates back to 1854 when the first jute mill as set up by George Auckland at Rishra in Hoogly district of West Bengal. Jute is predominantly a crop of eastern India.

The production process in the jute industry goes through a variety of activities, which include cultivation of raw jute, processing of jute fibers, spinning, weaving, bleaching, dyeing, finishing and marketing of both raw jute and its finished products. Currently the production of the fibre in India is around 100 lakh bales and about 73 jute mills are operating in the country at present. Besides, there are several small scale industries in the decentralized sector producing handicrafts, decoratives, twines, pulp & paper from jute and allied fibers and particle board from jute stick.

Project Report Includes:

Introduction
Product Description
Jute Sacking Bags & Their Usage
Types Of Jute Sacks
Uses And Application
B.I.S. Specifications
Market And Scope
Detailed Export Data Of Empty Gunny Bags
Overview Of India’s Food Grain
Manufacturers/Exporters Of Gunny Bags
Manufacturing Process
Process Flow Diagram
Details Of Automatic Jute Bag Making Machine
Manufacturing Process Of Gunny Bags From Yarn
Process Flow Chart
Principles Of Plant Layout
Plant Location Factors
Explanation Of Terms Used In The Project Report
Project Implementation Schedules
Plant Layout
Suppliers Of Raw Materials
Suppliers Of Plant And Machinery

Appendix – A :

1. Cost Of Plant Economics
   2. Land & Building
   3. Plant And Machinery
   4. Fixed Capital Investment
   5. Raw Material
   6. Salary And Wages
   7. Utilities And Overheads
   8. Total Working Capital
   9. Cost Of Production
   10. Profitability Analysis
   11. Break Even Point
   12. Resources Of Finance
   13. Interest Chart
   14. Depreciation Chart
   15. Cash Flow Statement
   16. Projected Balance Sheet

The post GUNNY BAG MANUFACTURING PLANT appeared first on EIRI - eBooks and Project Reports.

Basically towels serve two purpose. The major one being drying & the secondary one of decorating purposes.  In the old western  style bedrooms,  linen damark towels with elaborate coloured borders were hung behind the wash bowls against flowered wall  paper.  In present era our tastes have changed & our ideas of decor with them, but the decorative function of terry towels continues still.

All these  Handloom products are general items and  even  a most illiterate and common man is aquainted with these  products. Still for general information these are used in  the  following purpose.

1.   Khes and Bed Sheets Bed Covers are used for  covering  and making the beddings.

2.    Khes is also used for wrapping the body during mild cold or cold  season  by  the  medium, lower class  of  people   and  the villagers etc.

3.    Furnishing cloth and Tapestry cloth are used for the Wall Hangings,  Curtains, Covers & Cushion on Furniture. Also used  as fancy bed sheets.

INTRODUCTION
TERRY PILE MECHANISMS
B.I.S. SPECIFICATION
PROPERTIES OF TERRY TOWELS
CLARIFICATION OF TERRY TOWEL
FIBERS AND YARN USED IN TERRY TOWELS
QUALITY DEFECTS IN TERRY TOWEL
RAW MATERIAL
MARKET SURVEY
PRODUCTION OF TERRY TOWEL IN INDIA
PRESENT MANUFACTURERS OF TERRY TOWELS
MANUFACTURING PROCESS OF TERRY TOWEL
PROCESS FLOW DIAGRAM OF TERRY TOWEL
DETAILS OF TERRY TOWEL PROCESSING
CONTINUOUS PRETREATMENT AND DYEING OF TERRY TOWEL FABRIC
PROCESSING STEPS IN TERRY TOWEL MANUFACTURE
PREPARATORY PROCESSES
SCOURING
CUTTING OF & STITCHING THE SELVEDGES & LABLING
TECHNOLOGY OF TERRY TOWEL PRODUCTION
QUALITY CONTROL MANAGEMENT IN TOWEL MANUFACTURE
MACHINES FOR TERRY TOWELS WEAVING
PLANT LAYOUT
IMPORTED PLANT AND MACHINERIES SUPPLIERS FOR TEXTILE UNIT
SUPPLIERS OF RAW MATERIAL

APPENDIX – A :

1.      COST OF PLANT ECONOMICS
2.      LAND & BUILDING
3.      PLANT AND MACHINERY
4.      FIXED CAPITAL INVESTMENT
5.      RAW MATERIAL
6.      SALARY AND WAGES
7.      UTILITIES AND OVERHEADS
8.      TOTAL WORKING CAPITAL
9.      COST OF PRODUCTION
10.      PROFITABILITY ANALYSIS
11.      BREAK EVEN POINT
12.      RESOURCES OF FINANCE
13.      INTEREST CHART
14.      DEPRECIATION CHART
15.      CASH FLOW STATEMENT
16.      PROJECTED BALANCE SHEET

The post TERRY TOWEL MANUFACTURING appeared first on EIRI - eBooks and Project Reports.