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Showing posts with label Technology. Show all posts

Plastic, Polymer & Rubber Technologists - Introduction and Nature of Work



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The Plastic industry is a bedrock of modern industrial civilisation. There are a variety of scientists and engineers who work in the Plastic industry. Chemical scientists and engineers conduct research and develop new kinds of plastics, mechanical engineers with backgrounds in hydraulics, pneumatics, mechanics, and electronics design the machines, tools and dies for the production process, product designers design a variety of products, technicians work in moulding of plastics. The Plastic Technologist is trained for a number of these tasks and is engaged in the manufacture , fabrication, and end use of existing materials as also the development of new materials, production processes and equipments. Opportunities exist both in research, development and production of plastic materials as well as in the industry where plastic products are turned out.

Plastics comprise a family of materials. On combining different elements different plastics are created for a variety of uses. Substances used to make this product are synthetic resins which are the building blocks for polymers. Compounds like ethylene, benzine, ammonia are joined by various processes. The reactions are meant to cluster atoms of hydrogen, carbon, oxygen and nitrogen together to form monomer links. Bigger chains of these monomers are linked together by a process called polymerisation. This complicated chemical process under high temperatures and catalytic agents change the base substances into synthetic resin. Further polymerisation and addition of chemical substances convert it into a grainy substance, polystyrene resin. This substance is a clear colourless substance, by adding colours and through process of moulding one can convert it into a variety of utility products. It can be converted into fine soft plastic sheets, rigid hard utensils, by foaming into leather rexine and furnishing covers. By further hardening into laminates, in combination with asbestos natural rubber, etc., it can be put to various industrial uses. It can also be converted into heat, water proof, electrical current resistant products both for household and industrial uses. Hard product melamine is used for dinner ware, floor coverings, partition walls and roof coverings. In liquid form this product is being converted in to varieties of adhesives. Plastic products are also used in paint industries for synthetic/plastic/enamel paints which are water and weather resistant. It is used as chemical resistant lining for tanks involved in large chemical reactions. The packaging industry depends largely on plastics. Commercial and industrial use of plastics has grown over the past decade.

Natural rubber comes from plantations in hot moist climates. Although natural rubber still accounts for some of the rubber used today, synthetic rubber is used more extensively. Synthetic rubber can be produced at a cost that makes it competitive with natural rubber and has many more applications.

Rubber like material is synthesised from bi products of petroleum refining, i.e., Styrene and Butadine. Mixtures are heated in proportion, cooled under catalytic process, the latex formed is coagulated with acids and salts to form dry rubber. Special purpose rubbers, i.e., butyl rubber which can hold gases is used for tubes, polyisoprene rubber is used for truck tyres, neoparine is rubber used for pipeline, wire insulation etc., Other varieties of rubbers resistant to atmosphere, oils and other corrosives and resistant to sea water are produced by complicated chemical processes.

Industries using rubber obtain dry rubber from synthetic rubber manufacturers for manufacturing different products using a variety of processes. The main processes being heating, moulding and finishing.



Nature of Work

Plastic production process requires plastic/polymer engineers who oversee the production process and develop new products.Under their supervision work the plastic moulders and technicians carrying out the shop floor manufacturing processes.

Plastic/ Polymer engineers

Plastic and polymer engineers develop plastics /polymers to replace the use of glass, wood, metals, to create economical options or to cut on risks eg creating fire resistant plastics. They may be required for developing ecofriendly plastics for reducing pollution and increasing recyclability. This is the application function.

The process engineers oversee the production of high quality, standard material. Creation of accurate products to satisfy stipulated dimensions and standards is a challenge which needs close supervision. Computers are being used in the production process. Plastic engineers also coordinate mould building schedules and tool and die making.

Rubber Technologists

Rubber technology is about designing new product applications with synthetic rubber e.g new fibre combinations, new adhesives, formulation of rubber and plastic compounds for fabrication of products capable of flexibility, wear, traction. Their job in production involves supervision and monitoring of the manufacture of rubber products. In sales and marketing rubber technologists understand the requirements of the customer and keep liason with sales agents. They translate the customer demand to new product design.



Work Environment

Plastic engineers divide their time between the shop floor and their professional office.Working hours may become unregulated when production deadlines have to be met. They can be involved in discussions with potential customers to understand and work on product specifications. Research and development work is carried out in laboratories. There is some risk if adequate safety measures are not taken while using catalysts, solvents, and resins.



Personal Characteristics

Good mechanical aptitude and scientific acumen are required. Imagination, creativity are required for developing new products and in devising new uses of the basic product.Working with a variety of people will require considerable interaction skills as also the ability to write design and product details.



Employment Avenues

Plastic and Polymer industry throughout the world has emerged into a major sector of growth. Aggressive consumerism has brought about a metamorphosis in the industry over the past decade. From 10,000 metric tons consumption has increased to 8,00,000 metric tons and is expected to grow multifold by the turn of the century. There has been a mushrooming growth in plastic processing units though almost 70% are in the small scale sector. The challenges faced by the industry are even at the export front and is expected to cross US $2 billion by the turn of the century. Demands from a variety of industries such as those of the transport sector, agricultural, household appliances and goods, packaging, electric and telecommunication sectors have enhanced research, production and hence created employment in all sections of the industry. Plastic waste management industry has emerged as a parallel option for work. Synthetic rubber too is now in great demand. Opportunities for work exist in technological applications research, production, marketing with industries which use these materials.

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Plastic, Polymer & Rubber Technologists - Study and Training



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Technologists training - Students intending to enter the area of Plastic /polymers technology should study Physics, chemistry and mathematics at the Class XII level. Plastic technologists may specialise at the graduate level through a BE course in Chemical/Polymer Engineering or a B.Sc course in Chemistry can be followed by a BTech/diploma in Polymer/Plastic Technology. Specialised M.Tech/M.Sc courses in Plastic/Polymer technology can be taken by BE/B.Tech(Plastic/Polymer)/B.Sc(Chem)graduates. GATE examination has to be cleared for admission to post graduate courses with MHRD scholarship.

Technicians training - Machine Maintenance technicians and Mould Design technicians can pursue 1-3 year courses after completing a diploma in mechanical/ tool / plastics technology after Class XII. Students completing Class X may opt to train for becoming plastic industry technicians through a 2-3 year diploma in plastic mould making and design.( Refer to courses)

Course/Institutions

Premier institute

Central Institute of Plastics Engineering & Technology, TVK Industrial Estate, Guindy, Chennai-600 032 Website : www.cipetindia.com

Central Institute of Plastics Engineering & Technology (CIPET) was established at Chennai in 1968 by the Govt.Of India with UNDP assistance. CIPET is a pioneering national institution under the aegis of Deptt. Of Chemicals & Petrochemicals, Ministry of Chemicals & Fertilizers. Govt.of India. . The Institute is an apex body for promotion of plastics industries with regional centres in 11 States of India. CIPET has also been offering training facilities to international students from developing countries with a view to promote better understanding between the developing nations (and pave the way for rapid growth of plastic industries). CIPET has been recognised by the University of Madras as a Centre for conducting Research leading to Ph. D. in polymer Science and Technology and Polymer Engineering. The Institute has sophisticated machines and equipment in Design (CAD/CAM), Toolroom, Plastics Processing and Testing effective and practical oriented training. The Design department with CAD has the latest software for imparting effective training on product and mould design. CIPET centres are at Chennai, Ahmedabad, Amritsar, Bhopal, Bhubaneswar, Hyderabad, Lucknow, Imphal, Patna, Howrah, Guwahati and Mysore. Plastics Processing division has broad range of practical training facilities in the form of conventional processing machines as well as modern micro-processor controlled processing machines. In addition to the training activities the Processing division is also competent enough to undertake mould proving and moulding job works in different processing machines.

CIPET’s testing laboratories have all the modern machinery’s and equipments. The Institutes have Mechanical , thermal, electrical, optical, characterisation, chemical, rheology and product testing labs.

Courses

* Post Graduate Diploma in Plastics Engineering Duration/AgeLimit - 1 year/ 26 yrs.

Eligibility - B.E/B.Tech/B.Sc.Engg.(4 yrs.) in Mech/Chem/Prod/Polymer/Tool Engineering.

* Post Graduate Diploma in Plastics Processing & Testing Duration/Age Limit:- 1½ years/ 24 yrs.

Eligibility: 3 year degree in science with chemistry as one of the subjects

* Post Diploma in Plastics Mould Design Duration/Age Limit:-1 year/24 yrs.

Eligibility: 3 year diploma in Mech/Plastic Tech/Tool Engg./ Plastics/Production Engineering & CIPET-DPMT/ equivalent

* Short duration skill and technology upgradation programmes (for technical personnel/executives of industries) in the area of design, tooling, processing, testing & Quality Control.

* Diploma in Plastics Mould Technology, Duration - 3 years, Age Limit - 18 years, Eligibility - SSC/10th with Maths, English and Science.

Entrepreneur Development Programmes - Entrepreneur Development Programmes are organized for potential entrepreneurs to assist them to become prosperous entrepreneurs. The entrepreneurs are provided with adequate technical guidance for setting up of Plastics based Industry.

Training for Foreign Nationals : Students, technical personnel & executive from the Industries of SAARC and Developing countries, ILO, UNIDO/UNDP, Sponsored trainees/Fellows are trained by CIPET in different fields of Plastics Engineering & Technology.

Selection - Selection to these courses is based on academic record, a pass in Joint Entrance Exam and interview conducted simultaneously in July at Ahmedabad, Agartala, Amritsar, Ambala, Bangalore, Bhopal, Bhubaneshwar, Mumbai, Kolkata, Chandigarh, Delhi, Gauhati, Hyderabad, Imphal, Jaipur, Lucknow, Chennai, Patna, Simla, Tiruchirapalli. CIPET reserves a quota for SC/ST candidates with a relaxation of age limit upto 3years and such students are eligible for stipends at appropriate rates. Announcement : May/June.

Addresses for reference

* CIPET, Corporate Office, Guindy, Chennai 600 032.

* CIPET Extension Centre, Plot No. 630, Phase IV, GIDC Vatva, Ahmedabad 382446

* CIPET Extension Centre, Rayon & Silk Mill Post Amritsar - 143 104

* CIPET Extension Centre, Sector “G” , Govindpura Industrial Estate, Bhopal-462023

* CIPET Extension Centre, B-25, Chandaka Nucleus Industrial Complex, PO-Patia, Bhubaneswar - 751031

* CIPET Entension Centre, Post Bag, No. 3, HCL-Post, IDA, Phase II, Cheriapally, Hyderabd-500051.

* CIPET Extension Centre, C-12, Industrial Estate, Takyelpat, Imphal-795001

* CIPET Extension Centre, B-27, Amausi Industrial Area, (Nadar Ganj), Lucknow-226008.

* CIPET Extension Centre, 437/A, Hebbal Indl. Est. Hebbal, Mysore-570016

* CIPET Centre, C/O Area Office, patna Industrial. Area, Development Authority, 32, Patliputra Industrial Estate, Patna - 800013

* CIPET Service Centre, Flat No. 3, Leoniza, Gomes Mansion, Rua De Saudade, Pajifond, Margao, Goa-403601.

* CIPET Extension Centre, NSIC complex, Batikuri, Howrah 711402

University Courses

Eligibility criteria and admission procedures for admission to graduate
degree courses can be refered in the chapter 'Engineering & Technology'.

B.Sc. (3 years), B.Tech (4 years) M.Tech after BE/M.Sc (11/2 years)

University/Institution Seats Course

Eastern Region

West Bengal

University College of Science & Technology, 30 B. Tech. integrated, Plastic

92 Acharya Prafulla Chandra Road, & Rubber 3 year (post BSc)

Kolkata 700009 M. Tech. Plastics, Rubber Tech

Assam

Assam University, PO Box No. 63, MSc. Polymer Sc. Grad.
Silchar 788001, Distt. Cachar with 50% & Chem. major

Bihar

Birla Instt. of Tech, MESRA, Ranchi - 835 215 30 BE Polymer

Northern Region

Uttar Pradesh

*Harcourt Butler Technological Institute, 20 B. Tech. Plastic Tech

Kanpur 20009

Delhi

Indian Institute of Technology M.Tech Polymer Science

New Delhi 110016 and Technology

Delhi College of Engineering 30 B.E. Polymer Science

New Delhi 110016 Environmental

Punjab

Sant Longowal Institute of Engg. & Tech., 30 B.Tech. Chemical with

Longowal 148106 Sangrur Polymer (Diploma holder
eligible) All India Test

Western Region

Gujarat

LD College of Engineering, Gujrat University 10 B.E. Rubber Tech.




Road, Ahmedabad 300015 20 B.E. Plastic Tech.

Maharashtra

University of Bombay, 8 B.Tech. (Plastics)(4 yr.)

Deptt. of Chemical Technology, after 10+2 course. B Chem.

Matunga Road, Mumbai 400019 Tech(Polymers) Post

B.Sc. course, ME Plastics

Engg.

Dr. Babasaheb Ambedker Technological University 40 B.Tech. Plastic & Polymer

Tal Mangaon, Distt. Raigad.

*SSE College of Engineering & Technology, 60 B. Tech.

Near Shivaji Park, Akola 444003 Polymer Plastic Tech.

Laxminarayan Institute of 10 B.Tech Plastic & Polymer

Technology, Nagpur 440010

Maharashtra Institute of Technology, 60 B Tech Polymer Engg.

Sr No. 124, Kothrud, Pune 411038 (Diploma holders to

IInd year)

North Maharashtra University, Deptt. of 15 B Tech. Plastic Tech. Chemical Technology, Jalgaon 425001

DY Patil Coll. of Engg. & Tech., Kasaba Bavada, 60 BE Plastic Engineering
Kolhapur 416006

Southern Region

Kerala

Cochin University, 18 3 yrs B. Tech. (for scie-

Deptt. of Polymer Science & Rubber Tech., nce graduates with PCM
CUST, Kochi - 682022 & 50% marks and pass
in entrance test

12 M Tech. Polymer Tech.

University College of Engineering, 60 BTech Polymer Science

Thodupuzha 685584

MG University, Rubber Technology Centre, 30 BTech Rubber Technology
School of Technology & Applied Sciences, 60 B.Tech. Polymer Science
Kottayam 686560 & Technology

Karnataka

*Sri Jayachama Rajendra College of Engg. 40 BE Polymer

Mysore 570 006

Tamil Nadu

Anna University, 15 B.Tech Rubber (Post

Madras Institute of Technology, B.Sc 70% PCM)
Chromepet, Chennai 600044

Alagappa College of Tech., 15 M.Tech. Polymer Sc.

Guindy, Chennai 600 025.

Bharathidasan Institute of Engineering, 30 BE Polymer Engg. & Tech.

Tiruchirapalli 620024

Crescent Engg. College, GST Road, 30 B Tech. Polymer Tech.

Vandalur, Chennai 600048

Amrita Instt. of Tech. & Science, Ellimadai, 40 BE Polymer Technology
via Mudukarai, Coimbatore 641105

Kamraj College of Engg. & Tech. 60 B.Tech. Polymer Tech.

SPGC Nagar, NHY, PB No. 120

Virudhunagar 626001


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Ceramic Technologist - Introduction and Nature of Work



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With the technological developments over the past 150 years, ceramic engineers and scientists have acquired a better understanding of the uses of clay and other earthen substances. Ceramics is made of nonmetallic elements such as clay and inorganic elements such as zirconia. Many industries now depend on ceramic materials e.g. bricks, cement, tile, pipe for the construction sector, glass industries for glassware and pottery; spark plugs industries in the consumer goods sector; refractory materials, electrical insulators, cutting tools and bearings manufactured in industries dealing with industrial products; diodes, capacitors, magnetic materials and computer memory packages in the electronics sector and high temperature tile insulation and composite materials in space technology; ceramic spark plugs used in aerospace industry and nuclear fuel rods for nuclear industry.

Ceramic engineers work with highly advanced materials which have been produced by complex chemical processes while ceramic artists and craftspeople use clay and sand for basic ceramic materials.

Nature of Work

Ceramic engineering deals with the study of the properties, manufacture, design and applications of ceramic materials. Ceramic engineers are involved in the following areas of work :

Research - Ceramic technologists use their scientific knowledge to anticipate new applications to replace existing products. Research work involves the study and application of chemical and thermal interactions of oxides which make ceramics.

Design - Ceramic engineers modify the design of the machinery and tools used in the production process and also work on the design of ceramic products.

Production - Since ceramic has such diverse uses the ceramic technologists generally specialise in the technological developments of specific production processes. Ceramic technologists may specialise in glass for working in industries engaged in manufacture of tableware, fibre optics, bulbs, window panes, electronic ancillaries. Specialist in structural clay work in the manufacture of enamelled articles and pipes, engine parts, tools artificial limbs or cement used in construction or ceramic wares such as tiles, pottery and bathroom and kitchen fixtures. Highly demanding specialisation is for the electronics sector for manufacturing integrated circuits, sensors etc.

Testing - The samples prepared for production are tested for color, surface finish, texture, strength and uniformity and for the correctness of the manufacturing processes by engineers in testing laboratories Even the quality of raw material used in the industry is tested.

Sales - They also work in sales for understanding customer needs for projecting these requirements to guide further research.

Work Environment

Working conditions for ceramic technologists vary with the assignment. Technologists may work in plants and factories, researchers work in laboratories, research institutes, and universities. Those in management positions and consultancies work in offices.

The job in factories demands working in a variety of environments. The work environment in a tableware industry may vary significantly from a pipe factory or a sanitary ware factory. Glass bulbs factory and the cutting tools industry may also have significant environmental differences.

Personal Characteristics

Ceramic engineers have enquiring minds and a scientific outlook. Logical thinking, analytical outlook, a good understanding of chemistry are only the beginnings of a career in ceramics. The job requires a good theoretical base and a practical approach.

Ceramic engineering caters to the need of services segments such as improved materials for industrial customers which would require technologists to interact with engineers from other industries. They may work with e.g electronic engineers on a design project which requires working with a team. Good communication and interpersonal skills would enable ceramic engineers to work with international manufacturers. The core personal characteristics required are innovative outlook and problem solving skills.

Employment Avenues

Ceramic engineers find employment in industries producing glass, cement, porcelain, enamels refractories, iron and steel, and in industries manufacturing special ceramics for power and nuclear energy projects, aerospace, R & D Laboratories and Defence establishments. Ceramic engineer designs and develops products which range from a flower vase to the ceramic nose cone for a missile, and parts for the electronics industry.


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Ceramic Technologist - Study and Training



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Students pursuing Physics, Chemistry, Maths must clear the entrance test to engineering colleges offering a B.Tech (Ceramics) course. Postgraduate courses can be taken by graduates in the subject or related discipline. GATE score is required for MHRD scholorships.

Courses/Institutions

Eligibility criteria and admission procedures for admission to graduate
degree courses has been detailed in the chapter 'Engineering & Technology'.

B.Sc./B.Tech (4 years) / M.Tech (1 1/2 years)

Institution/University Seats Course

College of Ceramic Technology, 40 B.Tech.

73, AC Banerjee Lane, Kolkata-700010 Ceramics Tech.

Indian Institute of Ceramics, Correspondance

C/o Central Glass & Ceramic Research course equivalent to

Institute, Kolkata - 700032 B. Sc. (Tech.) Association-

*ship exam

University College of Science & Technology 20 B. Tech. (3 yrs.) Ceramic

92, Acharya Prafulla Chandra Road,

Kolkata700009

National Institute of Technology
Rourkela 769008 15 BE Ceramics

Benaras Hindu University, 45 B. Tech. Ceramics
Institute of Technology, Varanasi-221005 M. Tech.

Ceramic Instt. of Tech. & Research, Alwar, BE Ceramic Engineering
Rajasthan

Indian Institute of Technology, 11 5 years Dual degree
Mumbai 400076 programme in M.Tech
Ceramics & Composites

HKE Society's

PDA College of Engineering, 40 B.E, in Cement

Gulbarga-585102 and Ceramics Tech.

Anna University,
Allagappa College of Tech. 20 B.Tech. Ceramics

Guindy, Chennai-600 025

Eligibility for the Associate Membership exam is B.Sc. or Diploma in Ceramics with 2 years professional experience in the field of ceramics in each case B.Sc. with Maths, Phy/Chem/Geology


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Textile Technologists - Introduction and Nature of Work



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Textiles are an important part of modern life. Manufacture of fabrics, knitted goods, braids using natural products such as cotton, linen, wool, silk or synthetic materials, polyesters, nylon, and rayon provide a variety of job opportunities in the textile industry. Textile industry has three major categories of workers those who work in research and development, manufacturing, and in merchandising. The textile technologists/ engineers work to constantly find new synthetic materials, fabrics, textures and experiment with dyes and weaves, test for durability, fabric strength, and work with and develop computerised equipments. The textile testing laboratory carries out tests on sample textiles, designers generate fabric designs, textile production workers are involved in the manufacturing process and merchandisers are involved in the business of selling the fabrics. The garment manufacturing industry is an offshoot of this sector .

Textile production goes through four main stages - Yarn preparation, yarn production, weaving or knitting, dyeing and finishing.

The critical challenges faced by this industry is stiff international competition. New technologies and processing methods are being developed for the manufacture of durable, cost efficient materials for clothing, home furnishings, carpeting, towelling, automobile belts, parachutes, fire resistant and bullet resistant uniforms, polyester products, camping materials, medical use materials, and even material for teabags and childrens diapers. With a developing textile market all over the world, India being one of the major producers of textiles has not lagged behind. With the GATT agreement our textiles industry has got a boost. Employment avenues in our country have increased both in public and private sector enterprises and foreign participation has accelerated growth. There is also a great potential for research and development in this field. Infrastructural facilities exist both in private and Government sectors for R&D.

Nature of Work

Manufacture of textiles in India follows two major production systems- the hand operated loom and the mechanised production line. The handloom sector uses natural fibres and produces fabrics and home furnishing materials. This is carried on in the small scale sector and has textile designers, and weavers mainly involved in the production process.

In the formal sector the textile industry offers a wide range of job opportunities for engineers, textile chemists for research, textile technologists, computer professionals, knitters, weavers, dyers, printers, fashion designers, manufacturing specialists, marketing and sales people.

The major components of textile technology are:

Processing - Processing of fibre (natural or mixed) by blending them, designing the pattern and manufacture of textiles in various shades, self designs and prints etc.

Texturisation - Textile chemistry covers the process of texturisation in which the techniques of dying, bleaching and chemical modification of both natural cotton or silk or man made synthetic Rayon, Orlon, Acrilan yarns and fabrics is studied.

Mechanisation - The Development of Textile machinery, both for yarn making, weaving and development of ancilliaries. Their operation and maintenance is the job of Textile Engineer. The aim is to give better finish to the cloth.

Engineers in the textile industry

Textile engineering concerns itself with the design and development of textile machinery, their manufacture, installation, operation and maintenance. Industrial engineers are responsible for setting the operating schedules of each type of textile machine. They determine the most efficient method of material handling, estimate production costs, and ensure production efficiency. They are required to coordinate with the plant manager and the management.

Plant engineers are responsible for plant efficiency. They are responsible for the smooth functioning of the heating, air conditioning and other internal systems of the plant.

Note : Details of these engineering disciplines and courses may be refered in the Chapter on Engineering and Technology

Textile technologist

Textile Technology is primarily concerned with textile fibres and their transformation into yarns and fabrics. The areas of work are in textile manufacturing, textile engineering and textile chemistry. Textile manufacturing deals largely with the various processes involved in the design and manufacture of textile structures. Textile technologists are trained to work in three major areas. They work in research, design and development, production and quality control and customer service and sales.

Research and development - R&D involves the study of natural , manufactured and synthetic fibres for improvement in processing methods. For this study is conducted about its nature origin and use. This is largely a scientific job and hence draws upon the knowledge of polymer science, fibre chemistry, yarn production, fabrication efficiency and flexibility, dyeing and finishing, development or modification of production machinery and application of new technology to solve problems. Textile research involves development of new textiles suitable for specified purposes and designing new uses for existing textiles.

Production and Quality control - Technologists involved in production and quality control handle manufacturing procedures for converting fibres into textiles and textile products. The electronic controls, dyeing and finishing processes requires expert technical handling. In production there is constant supervision for spinning, weaving, knitting, bonding, dyeing, and finishing. They test fibres and textiles for heat resistance, crease resilience and laundering durability.The process of manufacture includes production, marking, packaging , storing and shipping. Quality control job encompasses product inspection for ensuring compliance of specifications. Efficiency and cost effectiveness is also ascertained.

Textile chemists deals with the chemical processing of textiles such as dyeing, bleaching, finishing and chemical modification of fibres, yarns and fabrics.

Customer sales and service - Technologists in customer sales and service are fully aware of the production processes and quality testing measures. They translate customer needs to the research and development department and direct production technologists to meet customer requirements.

Textile Workers

Workers in textile industries prepare natural and synthetic fibres for spinning into yarn. Yarn is made into textile products which are then used for making clothing, household goods, and for many industrial purposes. The workers are trained for handling the cleaning, carding, combing, and spinning of fibres, weaving, knitting, bonding yarns and threads into textiles as well as dyeing and finishing the textiles.

Work Environment

The work of engineers and technologists involves handling a succession of highly technical problems in a wide variety of situations. The interaction between scientists, engineers and technologists requires office work. Most technologists spend time on a computer, work in the textile laboratory, or on the plant floor. The textile industry is comparatively safe today, heavy lifting is now handled by machines. The plant environment during production is noisy and the dyeing process is messy. It involves the use of chemicals which requires careful handling.

Personal Characteristics

The job requires problem solving, analytical thinking and team work.Textile technologists need to keep themselves well informed about market demands and trends. They need to be very alert at all times and capable of observing minor defects in the manufacturing process. Quality control requires careful observation of stipulated requirements. Sales and marketing requires, good communication skills and knowledge of fashion trends and a fair amount of coordination with different departments.

Employment Avenues

The industry has been changing its outlook. Groups like Reliance, Raymonds etc have earned a great name in both the domestic and international markets. Job openings have improved in production, sales or exports. One can find employment :

* In marketing of textile products or engineering ancillaries required by the industry for production of cloth, yarn or fibre.

* In operation, maintainance and repairs of machinery and other supporting operations in running of textile producing unit or installation of equipment.

* In industries involved in production of man made fabric, rayon, orlon or blended fibre or weaving.

* In Garment manufacture.

* In Export of any of these products.

With tremendous rise in our export potentials more so with GATT agreement and government policies the textile industry has grown. Employment is expected to rise more for trained, experienced personnels both in India and abroad, where training facilities are non existent.


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