Assessment of Environmental Impacts during Operational Phase of a Textile Industry

Similar documents
TEXTILE INDUSTRY AND ENVIRONMENT. W.J.K.Dushyanthi Ranpatige Research Officer Industrial Technology Institute

CHARACTERIZATION OF TEXTILE WASTEWATER

Best Available Techniques in the Textile Sector. Brigitte Zietlow German Federal Environment Agency

Panasonic India Pvt. Ltd.

ENERGY AND ENVIRONMENTAL INDICATORS IN THE THAI TEXTILE INDUSTRY

Issue n 7 Delivered by Next Technology Tecnotessile Delivery date: June, 2012

ARCHEAN CHEMICAL INDUSTRIES PRIVATE LIMITED. Ambient Air Monitoring Report

Submitted by: M/s Panasonic India Ltd

Efficient removal of reactive dyes from industrial wastewater by peanut husk

ENVIRONMENTAL STATEMENT FORM-V SYNTHETIC GYPSUM MANUFACTURING PLANT M/S SHREE CEMENT LIMITED, BEAWAR, (RAJASTHAN) APRIL, 2010 to MARCH 2011 PART A

Water Footprint Assessment of washing-dyeing-finishing mills in China & Bangladesh

ARCHEAN CHEMICAL INDUSTRIES PRIVATE LIMITED. Ambient Air Monitoring Report

Performance Evaluation of Dairy Wastewater Treatment Plant

Cleaner ProduCtion in TexTile industry

NimkarTek Technical Services Pvt. Ltd.

Scheme of Teaching. L P Total

QUESTIONNAIRE FOR THE TEXTILE AND PRINTING INDUSTRY (SECTOR-RELATED QUESTIONS)

International Journal of Advance Engineering and Research Development

Kings Industries.

EXPERIMENTAL EVALUATION OF PHYSICAL CHEMICAL TREATMENT OPTIONS FOR DENIM PROCESSING WASTEWATER

Zero Discharge for Textile Industry

Hind Energy & Coal Beneficiation (India) Ltd.

Environmental Management Planning for a Textile Dyeing Industry: A Case Study

IMPACT OF FOUNDRY UNITS ON COIMBATORE ENVIRONMENT

How can liquid ozone be used in different industries?

EXECUTIVE SUMMARY ON ENVIRONMENTAL IMPACT ASSESSMENT REPORT

We are sending herewith the following for the month of September 2016.

Eco-design and textile

KKB Micro Testing Labs Pvt. Ltd., , 2 nd Floor, Tarun Plaza, NFC Main Road, Krishna Nagar Colony, Moula Ali, Hyderabad, Telangana

Membrane BioReactor: Technology for Waste Water Reclamation

TREATMENT OF DAIRY WASTE WATER BY MORINGA OLEIFERA AS NATURAL COAGULANT

Optimization of Managing Waste in Textile Industry

Commercial Crops in South Asia

[Karaiya* et al., 5(7): July, 2016] ISSN: IC Value: 3.00 Impact Factor: 4.116

PHYSICO-CHEMICAL ANALYSIS OF EFFLUENT FROM DAIRY INDUSTRY

Hind Energy & Coal Beneficiation (India) Ltd.

ECO-FRIENDLY SOLUTIONS FOR POLLUTION PREVENTION AND TEXTILE WASTEWATER TREATMENT

VERSION 3.0 MARKS & SPENCER APRIL

F ltrat on. An ISO & ISO Company

DRAFT TANZANIA STANDARD TITLE: TOLERANCE LIMITS FOR INDUSTRIAL EFFLUENTS DISCHARGED INTO WATER BODIES PULP AND PAPER MILLS

HAMS Washing & Dyeing Ltd. Sustainability Report ( )

Chapter - 6 Treatment for Recycling of Segregated Wastewater Generated from Dyes, Dye Intermediates and Textile Dyeing and Printing Industries of

Institutional Engineering and Technology (IET)

ZZJ/CLAB-KSPCB/04/ Environmental Officer,

Our Sustainable Actions

ZZH/CLAB-KSPCB/04/ Environmental Officer,

REVISED NATIONAL ENVIRONMENTAL QUALITY STANDARDS (NEQS)

SHREE CEMENT LTD..~..~..~ ii. Regd. Office:. 0. ~ ~. ~ BANGUR NAGAR, POS': BOX NO.33, BEAWAR , RAJASTHAN, INDIA ~ 66~~'" 'Its ~s 71 66

Discipline Chemical Testing Issue Date Certificate Number T-3790 Valid Until Last Amended on - Page 1 of 5

Optimisation of sewage treatment process at Pagla

Attachment 1 WORLD BANK ENVIRONMENT, HEALTH AND SAFETY GUIDELINES 1 MINING AND MILLING UNDERGROUND (INTERIM)

Chapter 2 LEGISLATIVE FRAMEWORK

PART A. M/s Shree Cement Ltd, (Grinding Unit) village - Udepur, Tehsil- Suratgarh, District -Shri Ganganagar, Rajasthan

PACKAGED SEW AGE TREATMENT PLANT

Prakruti Environmental Engineers (Environmental Laboratory), 1, Utkanth Society, B/H Alkapuri Club, Alkapuri, Vadodara, Gujarat

Multilateral Investment Guarantee Agency General Environmental Guidelines

AFIRM RSL Seminar, Shanghai, China. 1 20, by bluesign technologies ag

Characterization and Design of Sewage Treatment Plant in Bidar City

Journal of Chemical and Pharmaceutical Research, 2012, 4(2): Research Article

ISSN: TEXTILE WASTEWATER CHARACTERIZATION AND REDUCTION OF ITS COD & BOD BY OXIDATION

Annex 7.1 National Ambient Air Quality Standards for Nepal, 2003

HAMS Fashion Ltd. Sustainability Report ( )

M/s Hind Energy & Coal Beneficiation Pvt. Ltd. is presently operating a 2 x 1.2 MTPA

Zero Liquid Discharge for Pharma Challenges & Solutions

Green Business Options

EHS SMART-Treat Onsite Moving Media Treatment System

SUMMARY ON ENVIRONMENTAL IMPACT ASSESSMENT REPORT. Chandu Cattle Feeds

ZZM/CLAB-KSPCB/17/ Environmental Officer,

PART A. 3. Production Capacity 3.6 Million TPA Cement 4. Year of Establishment th September 2015 PART B WATER AND RAW MATERIAL CONSUMPTION

Be the change you want to see in fabrics

APPENDIX Questionnaire for Cotton Textile Industry

Effluent treatment in textile wet processing Bleaching of polyester-cotton fabric

GUJARAT TECHNOLOGICAL UNIVERSITY, AHMEDABAD, GUJARAT. COURSE CURRICULUM COURSE TITLE: POLLUTION CONTROL & EFFLUENT TREATMENT (Code: )

Effect on Water Quality of Chambal River due to Discharge of Open Drains in Kota City

Questionnaire (Conventional Energy)

CLEANER PRODUCTION, A SUSTAINABLE STRATEGY FOR THE SMALL SCALE INDUSTRIES-A LITERATURE REVIEW

The Chemical Industry and Climate Change. A Snapshot from India

New Methods of Textile waste water treatment. Leture 37

UNSATURATED POLYESTER RESIN

Ultra Watech Systems.

Ensuring a Cleaner Supply Chain

Stack Air Emission Test Report

TREATMENT OF WASTE FROM PULP INDUSTRY

DEVELOPMENT OF HYBRID ANAEROBIC DIGESTION AND MEMBRANE SEPARATION TECHNIQUE

Niinimäki, Kirsi; Tanttu, Marjaana; Smirnova, Eugenia Designing in a circular economy context

The Low-Carbon and Environmental Protection of Textile and Garment in China

Coke Manufacturing. Environmental Guidelines for. Multilateral Investment Guarantee Agency. Industry Description and Practices. Waste Characteristics

egypt report The77 th Plenary Meeting INTERNATIONAL COTTON ADVISORY COMMITTEE 2-6 December 2018 Abidjan Côte d'ivoire


A Detailed Study on Environmental Sustainability in Knit Composite Industries of Bangladesh

International Journal of ChemTech Research CODEN (USA): IJCRGG ISSN: Vol.8, No.4, pp , 2015

RadiciGroup and CNR-ISMAC Biella take up the MERMAIDS challenge: Commitment to environmental sustainability.

COD AND COLOR REDUCTION BY CATALYTIC TREATMENT OF DISPERSE DYE WASTE WATERFROM TEXTILE INDUSTRY

Excerpt of Thermal Power Guidelines for New Plants

WASTE WATER RECYCLE MANAGEMENT ION EXCHANGE INDIA LTD

ZZL/CLAB-KSPCB/17/ Environmental Officer,

Discipline Chemical Testing Issue Date Certificate Number T-3617 Valid Until Last Amended on

an alternative for textile wastewater

Waste Water Treatment Technologies and Practices in Indian Pulp and Paper Industries

Water Quality. CE 370 Lecture 1. Global Distribution of Earth s s Water

Transcription:

International Research Journal of Engineering and Technology (IRJET) e-issn: 2395-56 Volume: 4 Issue: 1 Jan -217 www.irjet.net p-issn: 2395-72 Assessment of Environmental Impacts Operational Phase of a Textile Industry Dr. Mahendra Pratap Choudhary 1, Saiful Islam 2 1Associate Professor, Department of Civil Engineering, Rajasthan Technical University, Kota, Rajasthan, India 2M. Tech. Scholar, Department of Civil Engineering, Rajasthan Technical University, Kota, Rajasthan, India ---------------------------------------------------------------------***--------------------------------------------------------------------- Abstract - Environmental pollution is global issue of the modern world. Tremendous industrialization is going on around the globe and in recent situation water and air are getting highly contaminated. The textile industry is often associated with environmental pollution problems and this industry is also considered as ecologically one of the most polluting industries in the world. About 14.5% GDP of India is from textile industry. India has specially emerged as a leading center for processing of synthetic fabric, specially suiting of mixed fiber i.e. cotton and synthetic in the polyester/viscose fabrics. An assessment of environmental impacts has been made for a textile industry RSWM Limited of Bhilwara, Rajasthan its operation phase. In this study, the physico-chemical parameters of water namely temperature, ph, hardness, total dissolved Solid (TDS), biological oxygen demand (BOD), chemical oxygen demand (COD), ambient air 1.1 Waste Generated from Textile Industries quality parameters namely SPM, SO 2, NO x and evaluation of noise levels, assessment of health and safety measures have been investigated for impacts on the workers of the industry. Zero discharge approach is examined in the said textile industry; which shows that significant environmental improvements are being made. It has been found that the industry is working according to the standards and norms defined by the Central Pollution Control Board of India. Key Words: Environmental Impact Assessment, Textile Industry, Water Pollution, Air Pollution, Noise Pollution 1. INTRODUCTION Textile processing industry is characterized not only by the large volume of water required for various unit operations but also by the variety of chemicals used for various processes. There is a long sequence of wet processing stages requiring inputs of water, chemicals and energy and generating wastes at each stage. The other feature of this industry, which is a backbone of fashion garment, is large variation in demand of type, pattern and color combination of fabric resulting into significant fluctuations in waste generation volume and load. Textile processing generates many waste streams, including liquid, gaseous and solid wastes, some of which may be hazardous. The nature of the waste generated depends on the type of textile facility, the processes and technologies being operated and the types of fibres and chemicals used. India s textile sector is one of the oldest industries in Indian economy. Even today, textile sector is one of the largest contributors to India s exports with approximately 11% of total exports. The textile industry has two broad segments. First, the unorganized sector consists of handloom, handicrafts and sericulture, which are operated on a small scale and through traditional tools and methods. The second is the organized sector consisting of spinning, apparel and garments segment which apply modern machinery and techniques such as economies of scale. Textile industries generate all three kinds of waste i.e. liquid effluents, air emissions and solid wastes. However, liquid effluents are of utmost concern because of its high volume and pollution potential. Quantity and nature of waste generated depends on the fabric being processed, chemicals being used, technology being employed, operating practices etc. The important pollutants present in a typical textile waste effluent are colour, bio-chemical oxygen demand (BOD), chemical oxygen demand (COD), toxic heavy metals, residual chlorine, dissolved solids and non-biodegradable organics termed as refractory materials. The textile units may have utilities such as raw water treatment system, cooling towers, laboratory, workshop(s), fuel storage facilities, residential colony, administrative block, canteen etc. which generates utility wastewater and domestic wastewater. Main sources of air pollution are boilers(s), thermo pack and diesel generator(s) which generate gaseous pollutants such as suspended particulate matter (SPM), Sulphur dioxide gas, oxide of nitrogen gas etc. Textile industry is also a major source of hazardous waste generation. The sources of hazardous waste generation are effluent treatment plant sludge, used oil, empty containers of dyes and other chemicals etc. 217, IRJET Impact Factor value: 5.181 ISO 91:28 Certified Journal Page 22

International Research Journal of Engineering and Technology (IRJET) e-issn: 2395-56 Volume: 4 Issue: 1 Jan -217 www.irjet.net p-issn: 2395-72 1.2 Environmental Impact Assessment Environmental Impact Assessment (EIA) is a tool used for decision making in projects, developments and programs. It may be defined as a formal process used to predict the environmental consequences of any development project. EIA tries to ensure that potential problems are foreseen and addressed at an early stage in the project s planning and design. EIA is also intended to identify the environmental, social and economic impacts of a proposed development prior to final decision making. In essence, EIA is a process, a systematic process that examines the environmental consequences of development actions, in advance. The emphasis, compared with many other mechanisms for environmental protection, is on prevention. yarn. The satellite image and actual photograph of RSWM Ltd. Bhilwara are shown below: Figure 1: Satellite Image of RSWM Limited Bhilwara 2. STUDY LOCATION & PROFILE OF INDUSTRY Textile is an important industry in Rajasthan, accounting for nearly 2% of the investment made in the State. Rajasthan contributes over 7.5% of India s production of cotton and blended yarn. Rajasthan has a leading position in spinning of polyester viscose yarn and synthetic suiting and processing. In total the production of textiles accounts 21.96 % in the State. Out of 862 spinning mills in India, 69 spinning mills are in Rajasthan. The major operations performed in a typical textile processing industry are desizing, scouring, mercerizing, bleaching, neutralizing, dyeing, printing and finishing. There are about 5 synthetic textile units in outskirts of Bhilwara on Chittorgarh, Gangapur and Mandal roads. The LNJ Bhilwara Group is a well-diversified multiproduct conglomerate with over 25, strong work forces, of which over 3, are highly qualified personnel in technical and managerial fields. The Group has diversified interests in Textiles, Graphite Electrodes, Hydro Power, and Sponge Iron & Telecommunication. RSWM Limited is a LNJ Bhilwara Group company. In 1994, a melange yarn-manufacturing unit was started by RSWM Limited at Mandpam, Bhilwara. The Mandpam unit specializes in fashion-oriented yarn. The unit produces 1% cotton and cotton-blended Melange yarn, which is the blending of two or more different colours of dyed fibre plus grey fibre, on 44,592 spindles for spinning, producing 1 MT/annum. The unit also has five cotton fibre dyeing machines capable of an output of 25 MT/annum and 17 yarn dyeing machines with an output of 4 MT/annum. The plant has state-of-the-art equipments from UK, Italy, Switzerland, Germany, USA and Japan to produce international quality melange yarn fibre & dyed Figure 2: RSWM Limited, Bhilwara 3. METHODOLOGY & INSTRUMENTATION In the study, assessment of environmental impacts has been made by adopting the standards methods applicable for the analysis of water, air and noise parameters. 3.1 Water Quality Parameters The water quality parameters have been analyzed at three important locations namely dyeing effluent, intermediate effluent treatment plant and reverse osmosis output. The important parameters included are temperature, ph, total dissolved solids, hardness, biochemical oxygen demand and chemical oxygen demand using instruments like thermometer, ph meter, TDS meter, BOD incubator, COD digester etc. 3.2 Ambient Air Quality Parameters The ambient air quality parameters namely suspended particulate matter (SPM), SO 2 and NO x have been analyzed at two locations of the industry i.e. main gate and near chimney using high volume air sampler, hot air oven, filters, impingers and spectrophotometer to assess the environmental impact. 217, IRJET Impact Factor value: 5.181 ISO 91:28 Certified Journal Page 23

International Research Journal of Engineering and Technology (IRJET) e-issn: 2395-56 Volume: 4 Issue: 1 Jan -217 www.irjet.net p-issn: 2395-72 3.3 Noise Level Measurement The measurement of noise levels within the premises of textile industry has been carried out with the help of Quest 19/29 integrating sound level meter for a period of seven weeks the study. 3.4 Health and Safety Measures An assessment of health and safety measures was carried out with the help of questionnaire and personal interview with the workers of the industry. The health and safety measures were physically checked within the premises and satisfaction level of the employees was ascertained. 4. RESULTS & DISCUSSION The following results have been obtained after assessment of water, air and noise parameters as well as health and safety measures. 12 1 8 6 4 2 Week 3 8.9 8.2 7. Week 4 9. 8.1 6.8 Week 5 9.3 7.7 7. Week 6 9.7 7.9 6.9 Week 7 8.8 7.9 6.6 Week 8 9.2 8.4 6.7 Week 9 8.7 8.1 6.9 Week 1 9.4 7.6 6.8 ph Measurement Week 1 Week 2 Week 3 Week 4 Week 5 Week 6 Week 7 Week 8 Week 9 Week 1 R.O 4.1 Water Quality Parameters Table - 1: Temperature Measurement Week 1 68 C 49 C 35 C Week 2 72 C 5 C 33 C Week 3 7 C 48 C 36 C Week 4 67 C 5 C 34 C Week 5 69 C 47 C 34 C Week 6 65 C 43 C 35 C Week 7 69 C 48 C 33 C Week 8 63 C 46 C 36 C Week 9 65 C 49 C 35 C Week 1 67 C 5 C 33 C Figure 2: Effect of time and process on ph of water Table - 3: TDS Measurement (in ppm) Week 1 5637 4967 328 Week 2 571 4923 317 Week 3 5449 4958 345 Week 4 5853 4972 341 Week 5 5761 4979 338 Week 6 529 4963 363 Week 7 5346 4964 328 Week 8 5587 4981 35 Week 9 5911 4992 342 Week 1 5472 4987 337 7 6 5 4 3 2 1 TDS Measurement (in ppm) Week 1 Week 2 Week 3 Week 4 Week 5 Week 6 Week 7 Week 8 Week 9 Week 1 from ETP R.O Graph 1: Effect of time & process on Temperature of water Table - 2: ph Measurement Week 1 8.7 8.1 6.9 Week 2 9.1 7.9 6.9 Graph 3: Effect of time and process on TDS of water Table - 4: Hardness Measurement (in ppm) Week 1 173 25 8 Week 2 164 21 8 217, IRJET Impact Factor value: 5.181 ISO 91:28 Certified Journal Page 24

International Research Journal of Engineering and Technology (IRJET) e-issn: 2395-56 Volume: 4 Issue: 1 Jan -217 www.irjet.net p-issn: 2395-72 Week 3 159 25 6 Week 4 17 216 7 Week 5 174 2 6 Week 6 171 27 9 Week 7 183 26 8 Week 8 167 214 6 Week 9 171 29 7 Week 1 184 212 7 2 Week 3 1334 158 11 Week 5 1545 172 1 Week 7 1476 167 12 Week 9 1627 184 11 COD Measurement (in mg/l) 15 25 2 Hardness Measurement (in ppm) 1 5 Week 1 Week 3 Week 5 Week 7 Week 9 15 s R.O 1 Graph 6: COD values at different stages 5 Graph 4: Effect of time and process on hardness of water 6 5 4 Week 1 Week 2 Week 3 Week 4 Week 5 Week 6 Week 7 Week 8 Week 9 Table - 5: BOD Measurement (in ppm) R.O Week 1 415 17 2.3 Week 3 547 19 2.7 Week 5 498 17 2.1 Week 7 431 18 2.2 Week 9 55 16 2.5 BOD Measurement (in mg/l) Week 1 4.2 Ambient Air Quality Measurement Table - 7: Ambient Air Quality Measurement S. No. Location Parameters (in µg/ m 3 ) SPM SO2 NOx 1 Near Main Gate 35.36 26.25 38.39 2 Near Chimney 342.37 29.5 42.43 4.3 Noise Level Measurement Table - 8: Noise Level Measurement (in dba) Location Week Week Week Week Week Week Week 1 2 3 4 5 6 7 Main Gate 6 62 6 6 6 61 6 Office 45 46 45 46 45 47 45 HR Deptt. 48 46 47 49 46 45 47 Mill 9 89 9 91 9 89 9 unit 68 7 67 69 71 7 71 Canteen 57 56 55 59 56 58 55 Assembly point 45 46 46 47 48 46 47 3 Noise Measurement(in dba) 2 1 1 8 6 Week 1 Week 3 Week 5 Week 7 Week 9 4 R.O 2 Graph 5: BOD values at different stages Table - 6: COD Measurement (in ppm) Main Gate Office HR Dept Mill unit Canteen Assembly point Week 1 1274 163 11 217, IRJET Impact Factor value: 5.181 ISO 91:28 Certified Journal Page 25

International Research Journal of Engineering and Technology (IRJET) e-issn: 2395-56 Volume: 4 Issue: 1 Jan -217 www.irjet.net p-issn: 2395-72 4.4 Health and Safety Measures It has been observed that provisions of fire extinguishers, emergency kits including ladder, fire helmet, gloves, mask, hydrant box key and first aid box etc., smoke detectors, regular health checkup system for all workers and training programs for different health and safety consideration have been made in the company. The outcome of a questionnaire and personal interviews revealed the following analysis of the overall health and safety measures. 8 7 6 5 4 3 2 1 From the above results, it is clear that parameters evaluated in the textile industry whether they are related to water, air or noise quality, all of them are within the permissible limits as prescribed by the Central Pollution Control Board of India, as given in the table 9 below: Table - 9: Central Pollution Control Board s Standard Limits for Textile Industry S. No. Parameters Standard Limits 1 Temperature 5 C 2 ph 5.5 to 9. 3 Hardness 6 mg/l 4 TDS 2 mg/l 5 BOD <3 mg/l 6 COD <25 mg/l 7 SPM 5µg/m 3 8 SO 2 12 µg/m 3 9 NOx 12 µg/m 3 1 Noise 75dBA (Day), 7dBA (Night) 5. CONCLUSIONS Health and Safety Measures Satisfied (%) Not satisfied (%) Partially satisfied (%) After carrying out an assessment of environmental impacts in the textile industry, very interesting outcomes have been observed. Some good practices have been observed in which zero discharge policy is a feather in the crown of the RSWM Ltd. In terms of impacts, we can conclude that: The industry is based on zero discharge principle, by using ETP and RO process, wherein the water is reutilized and recycled. The physic-chemical parameters of the recycled water e.g. temperature; ph, hardness, TDS, BOD and COD values are near about to fresh water. Harmful gases and substances are not found in the ambient air and SPM, SO 2 and NO x values are within permissible limits. Noise level is permissible at most of the locations and tolerable at other places. All mitigate and non-mitigate measures regarding health and safety are being taken at work place. No hazardous impacts are being found. In nutshell, it has been noticed that the textile industry does not have any major impacts which can lead to serious issues of environmental pollution or any other hazards. It has been noticed that the textile industry is significantly helping in improving the social status of the region. REFERENCES [1] AK Roy Choudhury, (214) Environmental Impacts of the Textile Industry and Its Assessment Through Life Cycle Assessment Textile Science and Clothing Technology,p 1-39. [2] B. Resta, S. Dotti (215), Environmental impact assessment methods for textiles and clothing, Handbook of Life Cycle Assessment (LCA) of Textiles and Clothing, Pages 149 191. [3] David P. Lawrence (24) Environmental Impact Assessment, DOI: 1.12/471238961. [4] G. Baydar, N. Ciliz, A. Mammadov(215), Life cycle assessment of cotton textile products in Turkey, Resources, Conservation and Recycling, Volume 14, Part A, Pages 213 223. [5] http://cpcb.nic.in/ [6] http://envfor.nic.in/ [7] http://www.rswm.in/about [8] Maria Laura Parisi, Enrico Fatarella, Daniele Spinelli, Rebecca Pogni, Riccardo Basosi (215) Environmental impact assessment of an eco-efficient production for coloured textiles, Journal of Cleaner Production, Volume 18, Part A Pages 514 524. [9] Md. Montasir Islam; Kashif Mahmud; Omer Faruk; Solaiman Billah (211), Assessment of environmental impacts for textile dyeing industries in Bangladesh, International Conference on Green Technology and Environmental Conservation-p173-181. [1] Tadele Assefa, Omprakash Sahu (216), Environmental Impact Assessment on Textile Industry: Changeling Steps for New Establishment, Journal of construction technology and project management. 217, IRJET Impact Factor value: 5.181 ISO 91:28 Certified Journal Page 26