Status of Ambient Air Quality in Andhra Pradesh -2007 I. Introduction Air quality is important simply because we can’t avoid breathing the air around us. The average adult breathes in about 20 cubic meters, or 20,000 liters of air a day. Other planets have sunlight, but only our earth has air and water. Without all of these there would be no life. A diverse community of plant and animal life has thrived on this planet for millions of years, sustained by the sun and supported by the soil, water and air. The air is made up of nitrogen and oxygen, with traces of other gases such as carbon dioxide, plus minute particles like dust. Although clean air should be freely available to all plant and animal life, humans have been gradually polluting it, putting their health at risk and the wellbeing of the earth itself. Air pollutants mainly come from the discharges of gases and particles mainly from industry, motor vehicles and Biomass combustion. There are also natural sources such as wind-blown dust and smoke from bush fires. Some forms of air pollution create global problems viz., upper atmosphere ozone depletion and acid rain. The enhanced greenhouse effect also falls into this category. The inhabitants of cities should be especially concerned, since they are exposed to a greater amount of pollutants coming from automobile traffic, commercial, industrial and manufacturing facilities, as well as other sources. Increased levels of air pollution are affecting the well being of inhabitants and imposing not just a direct economic cost by impacting human health but also threatening long-term productivity (material and vegetation damage, quality of life, reduced tourism to the country, discourage foreign investment etc.). Rapid industrial and economic growth of the developing countries in Asia has increased urbanization and population pressure on local and national governments to keep pace with urban environmental management systems to meet the needs of the expanding cities with numerous parameters for management. Air pollution abatement strategies, solid waste management plans, supply of water and control of wastewater and sewerage systems are the essentials of environmental management. In this energy plays a crucial role in all development plans to enable 1 a livable city. Therefore, urban governance is challenged with the rapid globalization and the need to provide basic amenities to the population. Policy makers are active in framing rules and regulations for the better management of air pollution thereby ensuring better air quality. Rules and regulations work well at institutional level but at the individual level awareness and conscientious is very important to effectively reduce the air pollution. APPCB is assessing the ambient air quality in the state. A monitoring network with 60 ambient air quality-monitoring stations through out the state are placed to assess the changes in air quality. In addition to it in Hyderabad continuous ambient air quality monitoring station has been installed. Based on the results of these monitoring stations, the government of A.P has taken preventive measures to control air pollution from different sources. APPCB is monitoring the point source emissions regularly and directions to install / upgrade air pollution control equipment are given to the industries that are exceeding the standards. Definition of air pollution Air pollution means the presence in the atmosphere of any air pollutant. The substances that cause air pollution are called pollutants. They may be solid, liquid or gaseous substance (including noise) present in the atmosphere in such concentration as may be or tend to be injurious to human beings or other living creatures or plants or property or environment. Air pollution doesn't always stay where it was made. In a very short time, it can make its way around the globe. This is called transport and dispersion, which is very complex. The transport and dispersion of the pollutants are governed by wind speed, direction, temperature, local terrain and atmospheric stability. Government of India has enacted the Air (Prevention and Control of Pollution) Act 1981 to prevent and control the air pollution. The objective of this Act is to provide for the prevention, control and abatement of air pollution, for the establishment, with a view to carrying out the aforesaid purposes, of Boards, for conferring on and assigning to such Boards powers and functions relating thereto and for matters connected therewith. 2 The functions of the State Board, as specified in Section 17, shall be : a. To plan a comprehensive programme for the prevention, control or abatement of air pollution and to secure the execution thereof b. To advise the State Government on any matter concerning the prevention, control or abatement of air pollution c. To collect and disseminate information relating to air pollution. d. To collaborate with the Central Board in organising the training of persons engaged or to be engaged in programmes relating to prevention, control or abatement of air pollution and to organise mass-education programmer relating thereto e. To inspect, at all reasonable times, any control equipment, industrial plant or manufacturing process and to give by order, such directions to such persons as it may consider necessary to take steps for the prevention, control or abatement of air pollution. f. To inspect air pollution control areas at such intervals as it may think necessary, assess the quality of air therein and take steps for the prevention, control or abatement of air pollution in such areas. g. To lay down, in consultation with the Central Board and having regard to the standards for the quality of air laid down by the Central Board, standards for emission of air pollutants into the atmosphere from industrial plants and automobiles or for the discharge of any air pollutants into the atmosphere from any other source whatsoever not being a ship or an aircraft h. Provided that different standards for emission may be laid down under this clause for different industrial plants having regard to the quantity and composition of emission of air pollutants into the atmosphere from such industrial plants. i. To advise the State Government with respect to the suitability of any premises or location for carrying on any industry which is likely to cause air pollution. j. To perform such other functions as may be prescribed or as may, from time to time, be entrusted to it by the Central Board or the State Government. k. To do such other things and to perform such other acts as it may think necessary for the proper discharge of its functions and generally for the purpose of carrying into effect the purpose of the Act. In addition to the above functions, the State Board may establish or recognise a laboratory or laboratories to enable the State Board to perform its above functions efficiently. 3 Important Sections of the Air Act : 19, 20, 21 and 22 Section 19. Declaration of air pollution control area : The Act has provided for measures, which are a. Preventive in nature, in the case of industries to be established b. In the case of industries already established they are remedial The primary responsibility of controlling air pollution is on the Board. The very first measure to be adopted in the respect is the declaration of any area or areas within the State as air pollution control area. The sub-section thus provides that the State Government may, after consultation with the State Board, by notification in the Official Gazette, declare in such manner as may be prescribed, any area or areas within the State as air pollution control area or areas for the purposes of the Act. As regards power to give instructions for ensuring standards for emission from automobiles, Section 20 of the Act lays down that with a view to ensuring that the standards for emission of air pollutants from automobiles laid down by the State Board under clause (g) of sub-section(1) of Section 17 are complied with the State Government shall, in consultation with the State Board, give such instructions as may be deemed necessary to the concerned authority in charge of registration of motor vehicles under the Motor Vehicles Act, 1988, and such authority shall notwithstanding anything contained in that Act or the rules made there under be bound to comply with such instructions. Section 40. Offences by companies. 1. Where an offence under this Act has been committed by a company, every person who, at the time the offence was committed, was directly in charge of, and was responsible to, the company for the conduct of the business of the company, as well as the company, shall be deemed to be guilty of the offence and shall be liable to be proceeded against and punished accordingly 2. Provided that nothing contained in this sub-section shall render any such person liable to any punishment provided in this Act, if he proves that the offence was committed without his knowledge or that he exercised all due diligence to prevent the commission of such offence. 3. Notwithstanding anything contained in sub-section(1), where an offence under this Act has been committed by a company and it is proved that the offence has been committed with the consent or connivance of, or is attributable to any neglect on the part of any director, manager, secretary or other officer of the company, such director, manager, secretary or other officer shall also be deemed to be guilty of that offence and shall be liable to be proceeded against and punished accordingly. 4 Explanation : a. "Company" means any body corporate, and includes a firm or other association of individuals; and b. "Direction", in relation to a firm, means a partner in the firm. Section 41. Offences by Government departments : 1. Where an offence under this act has been committed by any Department of Government, the Head of the Department shall be deemed to be guilty of the offence and shall be liable to be proceeded against and punished accordingly. 2. Provided that nothing contained in this section shall render such Head of the Department liable to any punishment if he proves that the offence was committed without his knowledge or that he exercised all due diligence to prevent the commission of such offence. Notwithstanding anything contained in sub-section(1), where an offence under this Act has been committed by a Department of Government and it is proved that the offence has been committed with the consent or connivance of, or is attributable to any neglect on the part of, any officer, other than the Head of the Department, such officer shall also be deemed to be guilty of that offence and shall be liable to be proceeded against and punished accordingly. Penalties for violation of various provisions the Air Act 1981 Section 37 Failure to comply with the provisions of section 21 or section 22 or with the directions issued under section 31-A: 1. Whoever fails to comply with the provisions of section 21 or section 22 or directions issued under section 31-A, shall, in respect of each such failure, be punishable with imprisonment for a term which shall not be less than one year and six months but which may extend to six years and with fine, and in case the failure continues, with an additional fine which may extend to five thousand rupees for every day during which such failure continues after the conviction for the first such failure. 2. If the failure referred to in sub-section(1) continues beyond a period of one year after the date of conviction, the offender shall be punishable with imprisonment with a term which shall not be less than two years but which may extend to seven years and with fine. Section 38 Penalties for certain acts : Whoever a. Destroys, pulls down, removes, injures or defaces any pillar, post or stake fixed in the ground or any notice or other matter put up, inscribed or placed, by or under the authority of the Board, or 5 b. Obstructs any person acting under the orders or directions of the Board from exercising his powers and performing his functions under this Act, or c. Damages any works or property belonging to the Board, or d. Fails to furnish to the Board or any officer or other employee of the Board any information required by the Board or such officer or other employee for the purpose of this Act, or e. Fails to intimate the occurrence of the emission of air pollutants into the atmosphere in excess of the standards laid down by the State Board or the apprehension of such occurrence, to the State Board and other prescribed authorities or agencies as required under Sub-Section(1) of Section 23, or f. In giving any information which he is required to give under this Act, makes a statement which is false in any material particular, or g. For the purpose of obtaining any consent under Section 21, makes a statement which is false in any material particular, shall be punishable with imprisonment for a team which may extend to three months or with fine which may extend to (ten thousand rupees) or with both. Section 39 Penalty for contravention of certain provisions of the Act. Whoever contravenes any of the provisions of this Act or any order or direction issued there under, for which no penalty has been elsewhere provided in this Act, shall be punishable with imprisonment for a team which may extend to three months or with fine which may extend to ten thousand rupees or with both, and in the case of continuing contravention, with an additional fine which may extend to five thousand rupees for every day during which such contravention after conviction for the first such contravention. 6 Sources of Air Pollution The sources of pollution may be categorised as Natural and anthropogenic. The major anthropogenic sources in an urban area such as Hyderabad are (i) mobile sources – vehicles, (ii) stationary sources – industries, (iii) area sources – refuse burning, road dust, open cooking, industrial processes. Description of Pollutants under study Airborne particulate matter varies widely in its physical and chemical composition, source and particle size. PM10 particles (the fraction of particulates in air of very small size (<10 µm)) are of major concern, as they are small enough to penetrate deep into the lungs and so potentially pose significant health risks. Airborne particulate matter is not a single pollutant, but rather a mixture of many subclasses of pollutants – in solid and liquid forms, with each sub class containing many different chemical species. Particulate matter may be classified as primary or secondary. Primary particles are emitted directly by emission sources, whereas secondary particles are formed through the atmospheric reaction of gases, such as the reaction between ammonia and oxides of nitrogen or sulfur that leads to the formation of PM A major source of fine primary particles are combustion processes, in particular diesel combustion, where transport of hot exhaust vapour into a cooler tailpipe or stack can lead to spontaneous nucleation of “carbon” particles before emission. Secondary particles are typically formed when low volatility products are generated in the atmosphere, for example the oxidation of sulphur dioxide to sulphuric acid. The atmospheric lifetime of particulate matter is strongly related to particle size, but may be as long as 10 days for particles of about 1mm in diameter. The term fine PM has also come to be associated with PM2.5, ultra fine with PM less than 0.1 microns in diameter (PM0.1) and coarse with PM in the size range between 2.5 and 10 microns Total Suspended Particulate matter: Suspended particulate matter (SPM) in air is a complex, multi-phase system of all airborne solid and low vapor pressure liquid particles having aerodynamic particle sizes from below 0.01-100 μm. Tiny airborne particles or aerosols that are less than 100 micrometers are collectively referred to as total suspended particulate matter (TSP). These particles constantly enter the atmosphere from many sources. 7 Sulphur dioxide is a corrosive acid gas which combines with water vapour in the atmosphere to produce acid rain. Both wet and dry deposition has been implicated in the damage and destruction of vegetation and in the degradation of soils, building materials and watercourses. The principal source of this gas is power stations burning fossil fuels which contain sulphur. Nitrogen oxides are formed during high temperature combustion processes from the oxidation of nitrogen in the air or fuel. The principal source of nitrogen oxides - nitric oxide (NO) and nitrogen dioxide (NO2), collectively known as NOx - is road traffic. NO and NO2 concentrations are therefore greatest in urban areas where traffic is heaviest. Other important sources are power stations, heating plants and industrial processes. Nitrogen oxides are released into the atmosphere mainly in the form of NO, which is then readily oxidised to NO2 by reaction with ozone. Elevated levels of NOx occur in urban environments under stable meteorological conditions, when the air mass is unable to disperse. In the presence of sunlight, it reacts with hydrocarbons to produce photochemical pollutants such as ozone. In addition, nitrogen oxides have a lifetime of approximately 1 day with respect to conversion to nitric acid. This nitric acid is in turn removed from the atmosphere by direct deposition to the ground, or transfer to aqueous droplets (e.g. cloud or rainwater), thereby contributing to acid deposition. Carbon monoxide (CO) is a toxic gas which is emitted into the atmosphere as a result of combustion processes, and is also formed by the oxidation of hydrocarbons and other organic compounds. In urban areas, CO is produced almost entirely (90%) from road traffic emissions. CO at levels found in ambient air may reduce the oxygen-carrying capacity of the blood. It survives in the atmosphere for a period of approximately 1 month but is eventually oxidised to carbon dioxide (CO2). Ground-level ozone (O3), unlike other primary pollutants mentioned above, is not emitted directly into the atmosphere, but is a secondary pollutant produced by reaction between nitrogen dioxide (NO2), hydrocarbons and sunlight. Ozone can irritate the eyes and air passages causing breathing difficulties and may increase susceptibility to infection. It is a highly reactive chemical, capable of attacking surfaces, fabrics and rubber materials. Ozone is also toxic to some crops, vegetation and trees. 8 Nitrogen dioxide (NO2) participates in the formation of ozone. Nitrogen oxide (NO) destroys ozone to form oxygen (O2) and nitrogen dioxide (NO2). For this reason, ozone levels are not as high in urban areas (where high levels of NO are emitted from vehicles) as in rural areas. As the nitrogen oxides and hydrocarbons are transported out of urban areas, the ozone-destroying NO is oxidised to NO2, which participates in ozone formation. Sunlight provides the energy to initiate ozone formation; near-ultra-violet radiation dissociates stable molecules to form reactive species known as free radicals. In the presence of nitrogen oxides these free radicals catalyse the oxidation of hydrocarbons to carbon dioxide and water vapour. Partially oxidised organic species such as aldehydes, ketones and carbon monoxide are intermediate products, with ozone being generated as a by-product. Since ozone itself is photo dissociated (split up by sunlight) to form free radicals, it promotes the oxidation chemistry, and so catalyses its own formation (ie. it is an auto catalyst). Consequently, high levels of ozone are generally observed during hot, still sunny, summer time weather in locations where the air mass has previously collected emissions of hydrocarbons and nitrogen oxides (e.g. urban areas with traffic). Because of the time required for chemical processing, ozone formation tends to be downwind of pollution centres. The resulting ozone pollution or “summer time smog” may persist for several days and be transported over long distances. Ambient Air Quality Monitoring in the state of the Andhra Pradesh Ambient air monitoring is essential to evaluate compliance with the standards. It provides primary data to estimate the ambient air quality levels and its deterioration / improvements over a period of time. APPCB is monitoring the ambient air quality through out the state at 60 locations with the following objectives: Objectives of Monitoring: 1. To determine highest concentration expected to occur in the area covered by network 2. To determine representative concentration in areas of high population density 3. To determine the impact on significant sources categories of ambient pollution levels. 4. To determine general back ground concentration levels. 5. To determine fluctuation of air quality levels with respect to base line data through the trend evaluation 6. To understand the natural cleansing process undergoing in the environment through pollution dilution, dispersion, wind based movement, dry deposition, and precipitation and chemical transformation of pollutants generated. 7. To ascertain whether the prescribed ambient air quality standards are violated and to assess health hazard, damage to materials and to control and regulate pollution from various sources. 9 Methodology of the parameters under study and the instruments used: S.No 1 3. Parameter Respirable suspended particulate matter (RSPM) Total suspended particulate matter (TSPM) Sulfur Dioxide 4. Oxides of Nitrogen (NOx) 5. Carbon Monoxide(CO) 6. Noise 2. Method High Volume sampling High Volume Sampling Modified West and Gaecke Jacob and Hochieser Sensor Sound pressure level Instrument used Respirable dust sampler Respirable dust sampler absorbing solution in a midget bubbler absorbing solution in a midget bubbler Instrument with electro chemical sensor sound pressure level recorder Sensitivity 0.3-10 particle size 4 - 1130g/m3 9 to 420 NO2g/ /m3 1 – 999ppm Type 1 instrument Instruments used for the purpose of monitoring Respirable Dust Sampler Sound Level meter Monitoring schedule: APPCB is monitoring the ambient air quality in the state of A.P. under two programmes. 1. National Air Monitoring Program (NAMP) 2. State Ambient Air Quality Monitoring (SAAQM) 10 In addition to the above, ambient air quality is monitored daily in Hyderabad covering traffic junctions, commercial and sensitive areas in the peak hours for a duration of 8 hours. Monitoring of ambient air quality under National Air Monitoring Programme (NAMP) To asses the ambient air quality Central Pollution Control Board (CPCB) is providing financial assistance (50% of operation and maintenance cost) to carry out the monitoring under the National Air Monitoring Program (NAMP). The data generated from these stations shall be submitted to central pollution control board by 10th of every month. At present, CPCB has established National Environmental Data Bank (EDB). The data generated shall be feed into the EDB on daily basis for all stations. There are 18 NAMP stations sanctioned by CPCB to APPCB and are in operation. The NAMP stations cover 7 districts of the state. The break up of 18 NAMP stations in the state of Andhra Pradesh S. No. Name of the city / town District No. of stations 1 Hyderabad Hyderabad 6 2 Visakhapatnam Visakhapatnam 6 3 Vijayawada Krishna 2 4 Kurnool Kurnool 1 5 Tirupathi Chittoor 1 6 Godavarikhani Karimnagar 1 7 Patancheru Medak 1 The monitoring will be carried out as per the frequency of monitoring stipulated by CPCB for the following four parameters: 1. Total Suspended Particulate Matter (TSPM) 2. Respirable Suspended Particulate Matter (RSPM) 3. Sulphur Dioxide (SO2) 4. Oxides of Nitrogen (NOx) Sampling for these parameters is carried twice in a week as stated below TSPM & RSPM are monitored for 24 hrs, with 8 hourly samples. SO2 and NOx are monitored for 24 hrs, with 4 hourly samples. The total number of measurements should not be less than 104 The estimated operation and maintenance cost is Rs1.70 lakhs / station / year State Ambient Air Quality Monitoring (SAAQM) The monitoring is carried twice in a fortnight for 24 hrs with 8 hourly change of samples. The monitoring of these stations is purely managed from the APPCB funds. Monitoring Network: APPCB has monitoring network of 60 stations in the state. Monitoring network is designed in such a way that the proposed objectives of ambient air quality are met. Ambient monitoring networks for air quality are established to sample pollution in a variety of representative settings, to assess the health and welfare affects, and to assist in determining air pollution sources. 11 Network of Ambient Air Quality Monitoring Stations (AAQMS) in the state S. No. 1. Office Name of the district Central Laboratory Hyderabad & Ranga Reddy district 2. ZL, Kurnool Kurnool and Anantapur dist. 3. RO, Tirupathi Chittor & Cuddapah dist. 4. 6. RO, Sanga Medak dist. Reddy-I RO, Sanga Medak dist. Reddy-II RO, Nalgonda Nalgonda dist 7. RO, Nizamabad 8. ZL, Vijayawada Nizamabad and Adilabad dist Krishna dist. 9. RO, Guntur Guntur dist. 5. AAQ location 1. Abids 2. Punjagutta 3. Paradise 4. Charminar 5. Zoo Park 6. KBR Park 7. Balanagar 8. Uppal 9. Jubilee Hills 10. MG Bus Station 11. Chikkadapally 12. Langarhouse 13. Jeedimetla 14. Nacharam 15. Madhapur 16. Kukatpally 17. Sainikpuri 18. Rajendranagar 19. Shameerpet 20. University of Hyd. 21. BPPA 1. Mourya Inn 2. Poola bazar 3. Industrial Estate Kallur 4. Anantapur 1. Regional Science Centre 2. GNC tollgate 3. Chittore 4. Cuddapah 1. Sanga Reddy town 2. Patancheru 1. Gaddapotharam 2. Bollaram 1. Mella cheruvu 2. Nalgonda 3. Ramapuram 4. Dondapadu 1. Subhash Nagar 2. Adilabad 1. Autonagar 2. Benz circle 3. Police control room Guntur Municipal Corpn. Area category Res/Com Res/Com Res/Com Res/Com Sensitive Sensitive Ind. Ind. Res/Com Res/Com Res/Com Res/Com Ind. Res/Com Res/Com Res/Com Res/Com Res/Com Res/Com Res/Com Sensitive Control statio Sensitive Res/Com Res/Com Res/Com Ind. Res/Com Sensitive Sensitive Res/Com Res/Com Res/Com Ind. Ind. Ind. Res/Com Res/Com Res/Com Res/Com Res/Com Res/Com Ind. Res/Com Res/Com Res/Com 12 S. No. 10. Office 13. RO, Eluru West Godavari dist 14. RO, Kakinada East Godavari dist Kakinada Ind. Estate 15. RO, Vizianagaram RO, Warangal Vizianagaram and Srikakulam dist Warangal dist. RO, Ramagundam Karimangar dist. 1. 2. 1. 2. 3. 1. 2. 12. 16. 17. ZL, Visakhapatnam Khammam dist. Nellore and Prakasham dist Visakhapatnam dist Area category Res/Com Ind. Res/Com Res/Com Res/Com AAQ location Khammam Palvoncha Vidyut Bhavan Prakasham MCV Kalyana Mandapam 2. St. John Paris 3. St.Alloys 4. Mindi 5. Police Barracks 6. Marripalem 7. Seetammadhara 8. Veerabahu 9. Gnanapuram Ashram Diagnostic center 11. RO, Kothagudem RO, Nellore Name of the district 1. 2. 1. 2. 1. Res/Com Res/Com Res/Com Res/Com Ind. Res/Com Sensitive Res/Com Res/Com Ind. Vizianagaram Srikakulam Pochamma Maidan REC Warangal IDA, Warangal Godavarikhani Karimnagar Res/Com Res/Com Res/Com Res/Com Ind. Res/Com Res/Com Monitoring Stations as per area type Area Type Number of Stations Residential, rural & other areas (including commercial areas) 43 Industrial areas 12 Sensitive areas 05 13 Ambient Air Quality in the State of Andhra Pradesh Andhra Pradesh Pollution Control Board is monitoring the ambient air quality in the state of Andhra Pradesh under different programs and covering different areas. APPCB has a three tier structure of organisation viz., Head Office, five Zonal Offices and 19 Regional Offices. The Ambient Air Quality data is presented district wise with the data of a zone placed together. Ambient Air quality of Hyderabad Zone This zone consists of four districts and is highly industrialised belt in the state of the Andhra Pradesh. Most of the industrial activity is in and around Hyderabad and Ranga reddy. The districts in this zone are Mahboobnagar, Karimnagar, Warangal, Ranga reddy & Hyderabad Map provided by GIS cell, APPCB 14 Ambient air quality of Hyderabad and Rangareddy: Hyderabad City is a metro city in South India, located on the Deccan Plateau. It is the capital city of Andhra Pradesh state. It lies on coordinates L/L 078:27:15 / +17:25:54. This city has witnessed a rapid growth in terms of economic activity with setting up of various types of industries of which bulk drugs is prominent and off late IT and services sector has taken the lead. This has encouraged large scale migration to the city in search of opportunities. The population of the Hyderabad urban agglomeration covering the twin cities of Hyderabad, Secunderabad and ten surrounding municipalities (HMDA) is 7 million. The industrial areas which are initially in the periphery are now amalgamated into the city with the invasion of residential colonies into and outward expansion. The rise in service sector and investment opportunities has increased the earnings and thereby purchasing power. This has resulted in preference to personal vehicles. Presently there are 2.0 million vehicles plying in the congested city roads. The growth of the vehicles in the two wheeler and cars is significant. The ultimate result is the increase in air pollution. Trends pertaining to Fuel consumption, Vehicular grow th and RSPM 200 181 MS in ML HSD in ML RSPM in ug/m3 Number of vehicles in 10000 180 160 172 159 141 132 140 Units 120 100 83 80 83 80 73 80 51.2 60 40 33.3 25.05 27.7 35.6 37.4 37.1 28.8 31.2 20.7 20 0 2002 - 03 2003 - 04 2004 - 05 2005 - 06 2006 - 07 Years The number of vehicles has increased from 13 lakhs to 20lakhs (rounded off) from 2002 to 2007 and the total fuel consumption during this period has increased by 41%. APPCB has established 21 ambient air quality-monitoring stations in order to know the ambient air quality. These stations are distributed to get a representative samples from different areas. Basically the stations can be categorised into three types: Peak stations: are located in areas where the maximum ground level concentration (GLC) is likely to be measured. They are useful for compliance monitoring in the vicinity of a source. The stations are Abids, Punjagutta, Paradise, BPPA and Charminar, 15 Neighbourhood stations: are generally located in an area representative of uniform land use such as residential, industrial or commercial. These stations are used to assess compliance with air quality standards and to measure trends over time. The stations are KBRN park, Jubilee hills, Madhapur, Kukatpally, Chikkadpally, Nacharam, Uppal, Balanagar, Jeedimetla, Langar house, Sainikpuri, Zoopark, and MGBS. Background stations are sited to assess air quality in areas without substantial sources and may be useful in providing background levels and measuring levels resulting from transport of pollution. The stations in this category are Hyderabad Central University, Rajendra nagar and Shameerpet MAP of Hyderabad with the monitoring locations in grid pattern These stations are located on circular grid pattern. The details on selection of grid are: Punjagutta is considered as center of the circular grid. A distance of 5 km radius from Punjagutta forms inner circular grid. This grid forms the core area. 5 km distance from the periphery of the inner grid is penultimate grid. This grid covers the areas with high to moderate pollution. Similarly, 5 km distance from periphery of penultimate grid is outer circular grid. The outer grid covers areas with moderate to low pollution. 16 S. Circular grid No. 1 Inner grid 2 Penultimate grid 3 4 Outer grid --- No. of stations 08 Station Names Panjagutta, KBRN park, Chikadpally, Abids, Balanagar, Jublihills, BPPA and paradise. Jeedimetla, Kukatpaliy, Madapur, Nacharam, MGBS Sainikpuri, Langar House, Charminar and Zoo park. HCU, Rajendranagar, Uppal. Shameerpet AAQS is located at 23.46 km from the Panjagutta. It is out of outer grid Total number of AAQS 09 03 01 21 The AAQ stations such as HCU, Rajendranagar and Shameerpet are taken as control stations. Ambient air quality in Hyderabad city As mentioned above APPCB is monitoring AAQ at 21 locations in Hyderabad city. At six locations monitoring is carried under NAMP. At six other locations monitoring is carried out for 8 hours duration and the rest of the stations are monitored under SAAQM. Monitoring is carried under SAAQM at the six NAMP locations also. NAMP data for the year 2007 Respirable suspended Particulate Matter 160 140 120 100 80 60 40 20 0 January February M arch April Paradise N o t e : C M ay Charminar o n June July Balanagar c August Uppal i September Zoopark n October November December Jubilee Hills P.S. u g / m 3 17 Total Suspended Particulate Matter 500 450 400 350 300 250 200 150 100 50 0 January February March April Paradise May Charminar June Zoopark July August Jubilee Hills P.S. September October Balanagar Uppal November December Note: Conc in ug/m3 The details of the NAMP stations for the above data are as follows S. No. Station code Type Location 1. 95 Industrial CITD, IDA, Balanagar. 2. 203 Industrial IDA Uppal, Modern Foods & Industries 3. 365 Residential Jubilee hills 4. 393 Commercial Paradise 5. 394 Commercial Charminar 6. 470 Sensitive Zoo park Observations on the RSPM and TSPM data: The concentrations prescribed for RSPM and TSPM are exceeding the NAAQS prescribed for residential (Jubilee hills, Paradise and Charminar) and sensitive places (Zoo Park). In case of Industrial areas viz., Uppal and Balanagar the concentrations are not exceeding the NAAQS though the concentrations are almost equal to that of the Paradise and Charminar. This is because the standards prescribed for industrial areas is 120 The highest concentrations of RSPM and TSPM are recorded at Paradise station. This may be due to vehicles transiting through the traffic junction, traffic moving over the fly over and sports activity in the near by ground. The station is not meeting the annual standard. The concentrations at Balanagar and Uppal for RSPM are around 100ug/m3. The TSPM concentrations are in the range of 270 – 304ug/m3. Balanagar and Uppal represent industrial area and hence are meeting the standards for both the parameters. 18 The concentration at Jubilee hills for RSPM is 49ug/m3. It is meeting the standards prescribed for residential areas. The TSPM concentrations are exceeding the standards prescribed. The Zoopark which represent sensitive area has a RSPM concentration of 51ug/m3 and TSPM of 134ug/m3 is exceeding the standards prescribed. The % of RSPM in TSPM for commercial areas and industrial areas is around 34%. That is RSPM constitutes 34% of the TSPM. At Zoopark the RSPM contribution to TSPM is high and is around 38%. Station wise annual averages of RSPM for Hyderabad city for the year 2007 I Range of concentrations (upper and lower) 300 Average 250 Conc. in ug/M3 200 153 150 139 100 107 108 99 96 100 89 79 50 49 45 86 79 70 54 49 48 70 53 47 49 PA BP Up pa l Im l i Ch bu n ik ka da pa l ly Je ed im et La la ng ar ho us e M ad ha pu Sh r am ee rp et Ku ka tp al ly Sa in ik pu Ra ri je n Un dr an i. Of ga r Hy de ra ba d Na ch ar am Ab id s Pu nj ag ut ta Pa ra di se Ch ar m in ar Zo op ar k KB RN Pa rk Ju bi le eh ill s Ba ln ag ar 0 Locations Observations on RSPM in Hyderabad city The annual average concentrations ranged from 49 – 153 ug/m3. Highest concentrations are recorded at Langar House The concentrations of RSPM are highest at traffic junctions (Abids, Punjagutta, Paradise Charminar) followed by commercial areas (Langar house, Chikkadpally, Kukatpally and Nacharam) and are not meeting the standards. 19 The concentrations at residential places (Jubilee hills, Madhapur and Sainikpuri) are on the lower side and are not exceeding the standards. The industrial areas (Balanagar, Uppal and Jeedimetla) are meeting the standards. The lowest concentrations are recorded at sensitive and control stations viz., KBRN park Zoopark, HCU and Rajendra Nagar respectively. Conc. in ug/M3 Station wise annual averages of TSPM for Hyderabad city for the year 2007 I Range of concentrations (upper and lower) 690 660 630 600 570 540 510 480 450 420 390 360 330 300 270 240 210 180 150 120 90 60 30 0 Average 409 389 337 328 304 297 270 266 213 128 118 bi A ds nj Pu t ut ag a Pa di ra se ha C in rm ar 259 213 204 146 132 143 196 143 129 124 r k r r ri e al ly ly rk la et un lls ad ar am al ga al ga pu us pu et pp pa ib P rp a hi p a p n l ar ab k o t e i o U e n m a r h a h l i N h a m e o e r n e I l a i R Z ar ad ad am ac ed uk Sa B bi nd B yd N M K kk K h ng H Je je Ju a a S f hi L R C .O ni U PP B A Locations Observations on TSPM in Hyderabad The annual average concentrations ranged from 118 – 409 ug/m3. Highest concentration has been recorded at Langar house station The concentrations of TSPM are highest at traffic junctions (Abids, Punjagutta, Paradise Charminar) followed by commercial areas (Langar house, Chikkadpally, Kukatpally and Nacharam) and are not meeting the standards. The concentrations at residential places (Jubilee hills, Madhapur and Sainikpuri) are not meeting the standards. 20 The sensitive and control stations record the lowest concentrations at KBRN park, but are exceeding the standards Annual Average concentrations of SO2 and NOx in Hyderabad for the year 2007 40 38 36 35 36.4 35.78 Sulphur dioxide 35.7 Oxides of Nitrogen 33.5 32 34 32 30 26 28 26 24 22.9 23.6 23.3 24 23.6 22 20 17.5 16.6 18 16 15.8 15.6 12.8 14 14.8 14.7 15.4 13.9 12 10 8 5.2 5.9 5.2 6 5.2 4.8 4.2 4.4 5.4 5.4 5.2 5.1 5.5 5.1 4.2 4.3 4.5 4.3 4.2 4.4 5.4 4.7 4 2 PA BP ad ap al ly Je ed im et La la ng ar ho us e M ad ha pu Sh r am ee rp et Ku ka tp al ly Sa in ik pu Ra ri je nd Un ra ng i. Of ar Hy de ra ba d Na ch ar am Im li b un Ch ik k Up pa l Ab id s Pu nj ag ut ta Pa ra di se Ch ar m in ar Zo op ar k KB RN Pa rk Ju bi le eh ill s Ba ln ag ar 0 Note: All values in ug/m3 Observations on SO2 & NOx concentrations in Hyderabad: The concentrations of Sulphur dioxide (SO2) is in the range of 4 – 6 ug/m3 on an average throughout the year in all the areas. The introduction of ultra low Sulphur fuel by the Government has resulted in decrease of SO2 concentrations. The concentration of the NOx ranged from 13 – 36ug/m3. The concentrations of Oxides of Nitrogen (NOx) are meeting prescribed standards. The peak concentration of 56ug/m3 recorded at Balanagar station. The NOx concentrations are higher at Balanagar station due to re-rolling plants located nearby and vehicular movement. Abids, Punjagutta, Paradise and Charminar are having the highest concentrations when compared to the rest of the stations this may be due to high volume of traffic near the stations. On an average the rest of the stations have concentrations in the range of 14 to 20ug/M3. 21 Area wise annual averages for the Hyderabad city Areas Residential Commercial Average Sensitive Industrial Control station RSPM 63 99 81 46 95 48 TSPM 174 287 231 123 283 128 SO2 4.6 5.2 4.9 5.3 5.6 4.2 NOx 17.1 28.6 22.85 14.1 34.3 15.3 Note: all conc in ug/m3 Remarks: The annual average of RSPM for residential, rural and other areas is crossing the NAAQS by 21ug/m3 i.e. exceeding by 36%. TSPM is exceeding the standards by 91ug/m3 i.e. 65% higher than NAAQS. The RSPM concentration of sensitive areas is meeting the standards whereas the TSPM standards are exceeding the standards by 53ug/m3 respectively. The industrial areas are meeting the standards prescribed. 450 I Range of concentrations (upper and lower) 400 RSPM TSPM 350 250 128 123 46 95 50 99 174 100 48 150 283 287 200 63 Conc. in ug/M3 300 0 Residential Commercial Industrial Sensitive Control stations Areas Graph showing area wise averages of RSPM and TSPM for the year 2007 22 Seasonal variation of Air pollutants in Hyderabad-- 2007 Parameters in Residential Commercial Average Sensitive Industrial Control Stations ug/m3 Winter RSPM TSPM 71 184 110 312 90.5 248 58 153 117 317 46 122 Summer RSPM TSPM 65 194 91 275 78 234.5 45 125 91 275 55 148 500 Rainy RSPM TSPM 47 140 76 248 61.5 194 33 94 76 248 42 115 I Range of concentrations (upper and lower) 450 Winter RSPM Winter TSPM 400 Summer RSPM Summer TSPM Rainy RSPM 300 Rainy TSPM 250 115 42 122 55 46 33 94 125 153 45 58 76 91 117 148 248 275 317 280 91 110 140 47 65 71 50 184 100 194 150 303 312 200 106 Conc. in ug/M3 350 0 Residential Commercial Industrial Sensitive Control stations Seasons Remarks: The concentrations of RSPM and TSPM are higher in winter season when compared to summer and rainy seasons. This is due to highly stable environment and inversions in the atmosphere during this season. Rainy season has the lowest concentrations and relatively clean but are still exceeding the standards for TSPM at all the areas and for RSPM with the exception of sensitive areas are exceeding the standards. In rainy season the % contribution of RSPM to TSPM is low when compared to other seasons The commercial areas have higher concentrations of RSPM and TSPM when compared to other areas in all the seasons. This is due to heavy vehicular movement in these areas. 23 Seasonal variations of SO2 and NOx in different areas of Hyderabad city Parameters Seasons Residential Commercial Average Sensitive Industrial Control Stations SO2 in ug/m3 Winter Summer 4.7 5.2 5.0 4.4 5.5 4.2 4.6 5.2 5.0 4.3 5.5 4.2 Rainy Winter NOx ug/m3 Summer 4.4 5.2 5.0 4.3 5.3 4.3 19 30.7 25 15.3 34 15.8 16.9 28.7 23 13.3 31 15.4 Rainy 15.6 26.4 21 13.7 37.8 14.8 Remarks: The SO2 levels are significantly very low through out the year in all category areas. There is not much variation in the concentrations of Sulphur dioxide (SO2) and NOx in all the seasons. It is observed that the annual average of NOx levels is higher in winter season followed by summer and rainy season for all areas except at control stations. Comparison of concentrations of RSPM & TSPM for the years 2006 and 2007 in Hyderabad 2006 RSPM 2007 RSPM 2006 TSPM 2007 TSPM 450 400 350 250 200 150 100 50 0 A Pu bid s nj ag ut Pa ta ra C dise ha rm in Z o ar o KB Pa rk R RN aj P en ar dr k an ag Sh U ni am ar ve ee rs ity rpe of t H Ba yd . la na ga r U p Je p ed al im Ju et bi la l M G ee H Bu ills s St C a hi kk tio ad n La ap ng all ar y ho us N e ac ha M ram ad ha Ku pu ka r tp Sa ally in ik pu ri BP PA conc in ug/m3 300 Location 24 Remarks: There is an increase in concentrations at Punjagutta and Langar house location for both RSPM & TSPM In industrial areas RSPM there was no significant change in RSPM & TSPM concentrations. In sensitive areas the concentration of RSPM and TSPM has decreased by 6 and 9ug/m3. In traffic junctions the RSPM concentrations has increased by 10ug/m3 and TSPM by 30ug/m3. The concentration of RSPM in residential, rural and other areas has increased by 4ug/m3 and TSPM by 5ug/m3. The concentration of RSPM at Langar house has alone increased by 31ug/m3 and TSPM by 79ug/m3. This has lead to an increase of RSPM & TSPM ANNUAL AVERAGE OF CABON MONOXIDE IN HYDERABAD – 2007 The annual average of the carbon monoxide concentrations is 2mg/Nm3 in the major traffic junctions. The traffic junctions monitored are Abids, Punjagutta, Charminar and Paradise. The concentrations in the sensitive place (Zoopark and KBRN park) is 1mg/Nm3. The peak concentrations of Carbon Monoxide in mg/m3 are given below: Abids Punjagutta Paradise Charminar Zoo Park KBRN Park January 24 30 24 25 9 9 February 20 20 20 20 7 7 March 21 27 24 24 9 9 April 24 26 24 21 9 7 May 22 31 26 31 8 6 June 20 24 24 25 7 6 July 21 27 22 24 6 6 August 20 25 22 24 7 6 September 21 24 24 21 6 6 October 21 27 24 24 7 6 November 21 27 22 24 7 7 December 20 24 24 24 7 7 The average Carbon Monoxide (CO) levels are within the National Ambient Air Quality Standards (NAAQS) of 4mg/m3 for residential / commercial areas (for 1 hour monitoring) The peak CO levels observed are in the range of 6 mg/m3 to 31 mg/m3 In sensitive areas such as Zoo park and KBRN Park the CO levels are within NAAQS of 2.0 mg/m3 25 Source Apportionment of Air Pollutants refuse/vegetative burning 15% mobile 50% road dust 25% industry 10% 26 Source Apportionment of Air Pollutants: A Case Study of Hyderabad Particulate pollution samples were collected at three locations: Punjagutta, and Chikkadpally along the city center, and Hyderabad Central University (HCU) to the west. Punjagutta and Chikkadpally are a mix of transport, commercial, and residential sites, while the HCU was sampled for background mix. A distinction was made between fine PM, with an aerodynamic diameter of less than 2.5 micron (PM2.5), and coarse particulate matter with diameter less than 10 micron (PM10). Both fine and coarse PM pose significant health risks as they are small enough to be absorbed deeply into the lungs. The sampling occurred in three one-month phases during November’05 – November’06, in order to represent particulate matter concentrations in the winter (Nov’05-Dec’05), summer (May’06-Jun’-06), and rainy (Oct’06-Nov’06) seasons. Samples were analyzed at the Desert Research Institute (DRI) in Nevada, USA, for chemical and gravimetric analysis. Receptor modeling was conducted jointly by DRI and APPCB. In general, concentrations of PM10 and PM2.5 exceeded the NAAQS and World Health Organization standards. Measured Mass concentrations of PM10 and PM2.5 3) PM10 Phase 3 Phase 2 Phase 1 Station name Punjagutta Chikkadpally HCU Punjagutta Chikkadpally HCU Punjagutta Chikkadpally HCU Maximum Minimum 188 163 123 218 261 105 193 130 100 127 110 94 28 45 14 56 34 23 3) PM2.5 Average 160 134 106 111 113 64 122 86 59 Maximum Minimum 99 84 71 87 111 75 136 121 61 69 57 46 13 16 6 36 23 15 Average 86 69 56 47 43 26 66 54 40 The origins of the sampled PM were determined by analyzing its chemical composition: The parameters analysed are ions (anions and cations), crustal elements, organic and elemental carbon fractions, and heavy metals. The results of the analysis are modeled using the Chemical Mass Balance model. The source profiles similar to those available at Hyderabad were taken from the source profiles library of DRI. The results of the modeling showed that nearly half of all PM in Hyderabad can be attributed to vehicular emissions. This is followed by resuspended dust from unpaved/paved roads and construction activities. Non-transport contributors include: secondary pollutants (ammonium nitrate and ammonium sulfate, formed from the chemical reaction of gases) and biomass burning (especially burning garbage and firewood). Emissions from coal combustion, an indicator of industrial component varied between sites depending on meteorology and proximity to the sampling stations. 27 Graph showing the results of the speciation winter winter Punjagutta summer HCU 1.6 18.1 4.8 21.8 6.0 10.1 6.1 10.3 32.1 heavy metals 26.1 22.6 18.4 winter EC OC 9.7 13.6 17.0 PM10 summer Anions PM2.5 6.2 PM2.5 PM2.5 PM10 9.7 7.0 15.7 44.6 43.9 8.7 25.0 18.0 PM10 rainy 1.0 light metals 9.6 13.0 PM2.5 38.7 PM10 PM2.5 PM10 PM2.5 8.8 15.0 7.1 6.7 29.8 6.9 13.2 17.7 14.8 PM10 32.5 14.0 10.0 rainy 4.0 31.0 1.0 22.3 3.0 17.2 20.1 9.4 13.2 2.6 14.8 5.1 16.8 1.0 4.0 4.6 3.0 15.3 29.8 15.2 summer 1.0 7.3 2.0 7.5 1.5 39.2 17.0 PM10 7.2 6.5 PM2.5 PM2.5 0% PM10 10.4 17.8 20% 47.7 40.7 21.0 24.6 15.3 9.3 36.9 40% 4.7 28.3 32.7 60% PM10 Conc. in % 80% 1.0 PM2.5 4.0 34.5 15.1 1.0 15.8 3.0 15.9 100% 14.0 Summary of speciation of the samples collected under source apportionment in Phase I to III rainy Chikkadapally Locations & Seasons Observations on speciation: The major contribution to the PM10 is from light metals, followed by Organic and elemental carbon. In the light metals silica and aluminum are predominant In Pm2.5 the major contribution is from Organic carbon followed by elemental carbon and ions. The light and heavy metals contribute more to the coarser part than to the finer. The ratio of PM10 to PM2.5 is high. The ratio of elemental carbon in PM10 with respect to PM2.5 is very low. That means almost all the elemental carbon is contributed to PM2.5 only. Event the ratio of organic carbon of PM10 to that of PM2.5 is also low indicating that more than 80% of OC is contributed to PM2.5 The low ratio of Ions also indicates their contribution mainly to PM2.5. 28 Contribution of different sources to the particulate matter in Hyderabad city Contribution to PM10 Bio mass burning Secondary 4% pollutants 8% Coal 4% Cement 2% Vehicles 49% Road dust 33% Contribution to PM2.5 Cement 2% Coal 16% Bio mass burning 7% Vehicles 50% Secondary pollutants 14% Road dust 11% 29 Major findings of the study are: Mobile sources contribute the majority of the PM concentrations. Vehicles and construction activities contribute to re-suspended fine dust particles. Long-range transport of pollution from industries outside the city increased during the sampling period. Waste burning - garbage and biomass is a significant source of pollution. Based on these findings, the Andhra Pradesh Pollution Control Board recommended: Conversion of buses and auto rickshaws from diesel to alternate fuels (natural gas, LPG, biodiesel) Increase public transport use from 40% to 60% (including adding new buses) Vehicle inspection and registration program to facilitate compliance with emissions standards, phasing out old vehicles Improve road maintenance and traffic management Improve capture efficiency for industrial PM emissions Enforce laws against waste burning The project was supported by the Integrated Environmental Strategies program of the US Environmental Protection Agency, the Andhra Pradesh Pollution Control Board, and the World Bank. Technical assistance was provided by the National Renewable Energy Lab and the Desert Research Institute. Findings of the study were discussed with the Central Pollution Control Board (CPCB), New Delhi, India, along with the representatives of MoEF, TERI, IOC, and NEERI at CPCB on 10 th and 11th of December 2007. A one day work shop for dissemination of the results of the source apportionment results was conducted at Head Office, APPCB on 14th December 2007 with different stake holder departments involved in the action plan to reduce the ambient air pollution. 30 Continuous Ambient Air Quality Monitoring Station (CAAQMS) established at Andhra Pradesh Pollution Control Board, Hyderabad Introduction: Hon’ble Supreme Court of India has identified the 16 cities where air pollution is high and directed respective State Governments / State Pollution Control Boards (SPCBs) to prepare action plan to control air pollution. Hyderabad is one among these 16 cities. Central Pollution Control Board (CPCB) in its 127th Board Meeting decided to set-up Continuous Ambient Air Quality Monitoring Station (1 each) in above 16 cities to see the impact of implementation of action plan on air quality. Capital cost of station i.e., Rs.80.00 Lakhs is to be borne by CPCB and the concerned SPCB on 50:50 basis. The annual operation and maintenance cost of each station will be borne by the respective SPCB. Networking cost of all the 16 stations will be borne by the CPCB. The specifications for CAAQMS were given by the CPCB. Submission of action plan by Govt. of AP: Accordingly, the State Government has prepared an Action Plan for ambient air quality improvement in the twin cities of Hyderabad and Secunderabad and HUDA areas in consultation with stakeholders and submitted the same to the Hon’ble Supreme Court in connection with WP No.13029/1985. Environment Pollution (Prevention & Control) Authority (EPCA) headed by Sri Bhure Lal has been monitoring the progress on the above action plan. Pollutants measured at CAAQMS and their techniques: The pollutants measured at CAAQMS and their techniques are given at Annex-2. Quality control and quality assurance of data generated by CAAQMS: In order to ensure the quality, the data is being subjected to all calibration protocols and data validation techniques. Dissemination of data generated by CAAQMS: Data generated by CAAQMS is being forwarded to CPCB, Task Force of APPCB for taking necessary action. 31 Parameters Monitored and measurement techniques Meteorological Parameters Inorganic Pollutants Organic Pollutants Parameters Monitored Temperature (oC) Relative Humidity (%) Barometric Pressure (mm Hg) Solar Radiation (Watts/m2 ) Wind Direction (Degrees) Vertical Wind Speed (m/sec) Wind Speed (m/sec) Wind Speed Gust (m/sec) Sigma θ (Degrees) Particulate Matter (PM10, PM2.5 & TSPM) Sulphur dioxide (SO2 Oxides of nitrogen (NO, NO2 & NOx) Carbon monoxide (CO) Ozone (O3) Benzene Toluene Xylene Measurement Techniques Thermister Capacitor Pressure Transducer Photo Cell Potentiometer Gill Propeller Anemometer Anemometer Beta ray Attenuation Pulsed fluorescence Chemi luminescence Non Dispersive Infrared UV Absorption G.C Photo Ionization Detector (PID) Wind rose and Pollution roses for the year 2007 in Hyderabad city Wind rose of Hyderabad for the year 2007 APPCB 01/01/2007 to 31/12/2007 Station: APPCB1 0 N 20% 338 22 315 45 10% 292 68 0% 270 90 >8 6 to 8 248 112 4 to 6 2 to 4 225 1 to 2 135 202 158 180 Magnitude(m/s) It was observed that in a year winds are either from Eastern or from Western sector. The Eastern winds are in the months of January, February, March, April, October, November and December while the Eastern winds are in the month of May, June, July, August and September. There are two transition periods/months (change of seasons) were observed, these are April - May and other is September October. In these transition months winds were changed from Eastern to Western sector in April – May and from Western to Eastern sector in September – October. 7.77% calm 99.6% Valid Data present. PM10 and Pm2.5 concentrations in Hyderabad city (CAAQMS data) for the year 2007 32 250 4 PM10 µg/m3 PM2.5 µg/m3 215 3.5 201 200 3.3 3.2 218 3.5 WS m/sec. 181 3 2.9 2.7 150 149 150 2.3 2.3 2 100 2.5 2.3 114 1.9 1.9 103 1.9 91 87 79 62 78 73 62 2 1.5 73 62 1 49 50 43 29 28 26 25 0.5 0 m ec e D ov e m be r be r er N O ct m be pt e ob r t Se Au gu s Ju ly ne Ju M ay ril Ap M ar br ua Fe nu Ja ch ry ar y 0 Months The percentage of PM2.5 in PM10 is around 40%. The annual average concentration of PM10 is 140ug/m3 and PM2.5 is 56ug/m3. The winter concentrations are higher than the summer and rainy seasons. There is an indirect relation with respect to air pollution and wind speed. As wind speed increases the concentration of the pollutants are decreasing. This is due to better dispersion. Benzene 14.0 Toluene Xylene 12.0 10.0 8.0 6.0 4.0 2.0 December November October September Months 2007 August July June May April March February 0.0 January Concentrations (in ppb) mtrs/sec conc in ug/m3 162 Benzene, Toluene and Xylene The concentrations of Benzene Toluene and Xylene are being recorded The concentration of the Toluene is highest when compared to that of the Benzene. This may be due to the industries located nearby. On an average the concentrations of toluene is in the range of 5.7ppb, Benzene-1.8ppb and xylene 0.7ppb. The concentrations are higher in winter season and lower in summer and rainy season. 33 Carbon Monoxide 0.90 Carbon Monoxide Concentrations (in ppm) 0.80 0.70 The annual average concentration 0.60 of CO is 0.5ppm. 0.50 The concentration is higher in 0.40 0.30 winter and is lowest in rainy. 0.20 The concentration are meeting the 0.10 standards prescribed December Months 2007 November October September August July June May April March January February 0.00 As observed from the graph the concentrations are highest in winter season followed by summer and rainy season The concentration of NOX are with in the limits except for the November and December 2007. 100 NO µg/m3 90 NO2 µg/m3 NOx µg/m3 80 SO2 µg/m3 O3 pppb Concentration 70 60 50 40 30 20 10 r r mb e De ce r mb e No ve ob e Oc t mb er st pt e Se Au gu ly Ju ne Ju Ma y Ap r il Ma rc h y br ua r Fe Ja nu ar y 0 The concentration of ozone is high in the first half of the year reaching the highest concentrations in April. As the ambient temperature and the concentrations of the NOx are decreased the concentrations of ozone has decreased. Month Note: Conc. Of Ozone in ppb and rest of the parameters in ug/m 34 ACTION PLAN FOR LOWERING OF AIR POLLUTION IN HYDERABAD CITY, ANDHRA PRADESH In the matter of W.P.(C)No.13029 of 1985; M.C. Mehta v/s. UOI & others, the Hon’ble Supreme Court vide order dated: 14th August 2003 directed State Governments of Maharastra (Sholapur), Andhra Pradesh (Hyderabad), Gujarat (Ahmedabad), Uttar Pradesh (Kanpur, Lucknow), Karnataka (Bangalore) and Tamil Nadu (Chennai) to draw-up action plans for lowering air pollution in the cities and also directed that the plan, once finalised, should be placed before Environment Pollution (Prevention & Control) Authority (EPCA). Accordingly, the Government of Andhra Pradesh prepared an Action Plan in consultation with all the stake holder departments viz., Transport, APPCB, Civil Supplies, State Oil Co-ordinator, etc. for lowering air pollution in HUDA area. Sri Bhure Lal, Chairman, EPCA has been reviewing the action plan submitted. The latest status of the action plan is given below: Emission norms and automotive fuel quality: Euro-II norms were already implemented to all new 4-wheeled 3.5 tonnes and below laden weight. Euro-II norms were already implemented to all new buses / goods vehicles. Euro-II norms were already implemented to all new 3wheelers. Regarding reduction of sulphur in fuels, EURO-III norms were implemented in Hyderabad Urban Development Authority (HUDA) since 1.04.05 .150 ppm of Sulphur in petrol 350 ppm of Sulphur in Diesel. Benzene content in petrol was reduced to 0.56% in HUDA area. Euro-III fuels were introduced since 01.04.2005. 320 pre-mix oil dispensers were installed in HUDA. 95% of dispensing units do not sell loose 2T oil. PUC records are being maintained at PUC centers, fuelwise i.e., diesel and petrol and vehicle category wise. Conversion of autos to LPG mode of fuel: Out of 68,840 auto rickshaws on rolls of Hyderabad district, 29,346 have been converted into LPG mode of fuel leaving a balance vehicles of 39,494. Only 6 LPG filling stations are presently working in Municipal Corporation of Hyderabad area (Hyderabad district limits). Once additional LPG filling stations are operational, balance auto rickshaws can be converted to LPG fuel mode by end of 2007. 35 Fiscal policy to support public transport: GO Ms.No.68 Tr. R&B (Tr.I) Department, dated: 13.04.2006 as amended vide GO Ms.No.180 Tr. R&B (Tr.I) Department, dated: 21.09.2006 is issued levying taxes on private stage carriages, private contract carriages including taxies, autos, private service vehicles, education institution buses and goods carriages. Third Schedule of AP Motor Vehicles Taxation Act, 1963 prescribes one time tax in respect of two wheelers, 4-wheelers, omni buses and motor cabs, whose cost is more than Rs.3.5 Lakhs. For new vehicles, 9% rate of one time tax is prescribed and for in use vehicles, the rate of tax is reduced proportionately depending upon the age of the vehicle from the date of registration. GO Ms.No.118 Tr. R&B (Tr.I) Department, dated: 07.06.2006 is issued levying motor vehicles tax on gross traffic earnings of fleet owners. APSRTC is the only fleet owner i.e., taxed basing on this GO. 5% of gross traffic earnings is fixed for town services and 7% of gross traffic earnings is fixed in respect of other services as Motor Vehicles Tax. As could be seen from the above tax details, public sector is put to advantage vis a vis personal vehicles. The tax levied on vehicles of APSRTC who is the monopoly stage carriage operator, is much lower compared to other categories of personalized vehicles and public service vehicles excepting auto rickshaws. The tax on APSRTC is levied at a lower rate to promote public transport service. APSRTC is also given freedom to fix the rate of tickets at their level. In order to promote alternate fuels, the AP Motor Vehicles Taxation Act, 1963 provides for exemption of Motor Vehicles Tax for a period of 5 years from the date of registration on Motor Vehicles using CNG, Battery & Solar Power. Plan for establishment of new LPG dispensing stations: At present, 16 LPG outlets are in operation in twin cities of Hyderabad & Secunderabad and another 11 are under various stages of commissioning and would be in operation by the end of March 2007. CNG Programme: GAIL has submitted the road map for CNG supply in Hyderabad to MoP&NG on 13.10.2006 for onward submission to EPCA. As per guidelines of MoP&NG, GAIL had signed MOU with HPCL on 19.02.2000 for formation of Joint Venture Company to implement City Gas Distribution in AP. The Joint Venture Company (JVC) was incorporated on 22.08.2003 in the name of M/s.Bhagyanagar Gas Ltd. (BGL) along with HPCL for supply of CNG / Piped gas in the state of Andhra Pradesh. BGL has its head quarters in Hyderabad and is already in service for supply of CNG in Vijayawada. Further, BGL has two outlets (one in Tirupathi and another in Hyderabad) and are also in the process of opening more retail outlets in the city of Hyderabad. 36 No specific allocation exists for Hyderabad. However, total of 0.1 mmscmd gas has been allocated to BGL for Andhra Pradesh, which is much less than actual requirement and hence, gas availability is an issue. GAIL is in discussion with domestic producers like RIL and GSPCL who are expected to produce gas by 2008 end. First CNG daughter booster station was commissioned on 01.08.2006 by transporting CNG through mobile cascades, for seeding the market in Hyderabad, from Vijayawada where BGL has already set-up 4 CNG stations, including one mother station. Two more CNG stations are being planned by March 2007 with the gas transported through mobile cascades from Vijayawada till the pipeline connectivity is getting ensured for Hyderabad and gas is sourced for the same. As regards construction of new pipeline, it was mentioned that gas pipeline policy of Govt. of India has been announced and any new pipeline shall be decided by MoP&NG / Regulator based on the principle of common – carrier / third party access on non-discriminatory basis. The retailselling price per KG is Rs.22.17 at Vijayawada and Rs.30/- at Hyderabad. Safety of CNG / LPG vehicles: Training programme for the personnel involved in retro-fitment of LPG / CNG kits would be taken up on receipt of recommendations of Prof. H.B. Mathur, on safety check list, guidelines and corrective measures. Public transport: a. No. of buses: To increase the number of commuters traveling by public transport from 42% to 50%, the following additional number of vehicles is proposed to be added. Year No. of buses to be inducted 2006-07 367 2007-08 350 2008-09 350 2009-10 100 Thus, it is proposed to achieve targeted 50% clearance in the year 2008-09. As MRTS will be operational from 2009-10 onwards, the additional buses required per year will be 100 only. SETWIN has also been given permits to operate another 100 new buses in the twin cities. 37 APSRTC requested M/s.BGL to give the full details with regard to the quantity of CNG that can be made available and pricing policy to workout the requirement of buses from the year 2008 onwards. M/s.GBL informed that the availability of CNG to transport sector in Hyderabad and the probable time of availability mainly depends upon the allocation by the MoP&NG. M/s.BGL informed that estimated requirements have been communicated to the concerned government departments for allocation. On receipt of above information, APSRTC will submit a plan for inducting CNG buses from 2008 onwards along with required budget. Outer ring road all round the city and radial roads have been planned. Bus Rapid Transit (BRT) is being planned for implementation on these roads. With an estimation of Rs.250 Crores, outer ring road is being taken-up to divert heavy vehicles from the city. Phase-I with 22kms. is started. Phase-II with 147km. is under finalisation. The outer ring road is an 8 lane road with the corridor of 150mtr. to be completed within two years. Operators of other Inter-State / Inter District buses are also directed to transfer passengers from the city points to be outskirts of the city to relieve congestions in the city and to ensure free movements of vehicles. Dedicated bus lanes for APSRTC from Moosapet to Punjagutta have also been proposed by MCH & APSRTC jointly. Two dedicated bus lines are expected to be commenced from 01.03.2007. The Hon’ble High Court has been monitoring the action taken by MCH on regular basis. Multi Modal Transport System: Multi Model Transport System (MMTS) services were introduced in the city on two routes consisting of 43 kms. a couple of years ago. This is a joint project of Govt. of A.P. and Indian Railways costing about Rs.200 Crores to introduce urban transportation services by upgrading the spare line capacity of the existing railway lines. The MMTS services are slowly becoming popular and are presently carrying about 50,000 passengers per day. Metro Rail / Mass Rapid Transit System (MRTS): To improve the public transportation system and to control the rapid growth of private vehicles, based on the recommendations of a Seven Member Committee of Senior Officers, Govt. of Andhra Pradesh approved development of Metro Rail / Mass Rapid Transit System (MRTS) on 3 of the busiest corridors of Hyderabad in Phase-1. Line-I: Miyapur – Punjagutta – M.J. Market – L.B. Nagar (29.87kms.; 27 stations); 38 Line-II: Jubilee Bus Station – Secunderabad Railway Station – Sultan Bazar – Falaknama (14.78 km.; 16 stations); Line-III: Osmania University (Habsiguda) – Begumpet – Yousufguda – Shilparamam (21.74 kms.; 20 stations). Estimated to cost about Rs.8,760 crores, the project is being taken up on BOT basis and 6 consortia have been pre-qualified for this project. DPRs have already been prepared for all the three routes and the Request for Proposal (RFP) documents and Model Concessionaire Agreement have also been got ready. Selection of the BOT developer is expected by June 2007 and the construction activity is scheduled to commence by middle of 2007. The project is targeted for completion in a short span of 4 years and a large number of preparatory activities are being undertaken in parallel processing mode. After completion of this project, the system is expected to carry 16.5 Lakhs passengers per day in 3 of the busiest corridors of Hyderabad, giving considerable relief to these highly congested routes. Parking policy and pedestrianisation: Municipal Corporation of Hyderabad (MCH) in consultation with Traffic Police, recently rationalized the parking lots and created 115 intelligent parking lots where the road width / open space permits such parking. In order to optimize the utilization of the space of the parking lots, an intelligent system consisting of CLC mobile card readers, CLC card readers, etc. was introduced. The intelligent card readers automatically note down the check-in and check-out timings of the vehicles at the parking lots and will deduct the charges from the pre-paid cards cash balance for the used time. This is yielding good results and parking discipline has considerably improved. The Revised Building Rules were approved by the Govt. vide GO Ms.No.86MA, dated: 03.03.2006, which is applicable to the Hyderabad Metropolitan Area and would be extended to Visakhapatnam, Vijayawada and other major urban areas. The Revised Building Rules have among other things, have rationalized and revised the parking norms viz., (a) The parking requirement in buildings is made as a percentage of the total builtup area (from 20% to 60%). It is higher in the MCH area (core area of the city, and for all non-residential occupancies. (b) Allowing parking in cellars or stilts or in upper floors. (c) Allowing multiple cellar parking floors in large complexes. (d) Encouraging parking lots and common pool parking area in group housing, gated and other multiple housing development. 39 (e) Allowing visitors parking spaces in the open space over and above minimum setbacks of 6 mtr. (f) Encouraging mechanized car parking faciltieis in complexes and increasing height of parking floor to 4 mtr. to facilitate 2-level parking stack. (g) Common and continuous cellar parking floors between adjoining buildings would be allowed depending up on structural safety aspects, mutual agreement between owners, etc. (h) Allowing basement / cellar parking floor to extent beyond the setbacks but maintaining atleast 1.5 mtr. distance from the property line. (i) No fees and the other charges shall be charged by the Sanction Authority for the area / floors developed as parking complex / parking lot. (j) In an existing area / locality where an owner or two or more owners come together and developed combined or common parking complex, pedestrian plaza / sub-way, or into / facilitate additional access by linking with surrender roads, etc. for public usage additional bonus built-up area / TDR would be considered by the sanctioning authority. (k) 10% rebate in property tax to those who provide additional parking place of 25% and above. (l) Obtaining Occupancy Certificate made mandatory which has a specific parameter w.r.t. compliance of parking requirements before the building is allowed to be occupied. To encourage owners to develop parking complexes, parking lots, the following incentives are given in the revised building rules: (a) Equivalent built up area of such parking complex / or area of parking lot as the case may be would be considered as Transferable Development right by the sanctioning authority. (b) The setbacks (excepting the front setback) for parking complexes are 50% of the requirement of buildings. (c) No fees and other charges shall be charged for parking complex / parking lot. (d) A moratorium on property tax for 5 years would be considered; and for the next 5 years – property tax shall be levied on the lowest slab of residential category. Vehicle inspection programme: a. Status of implementation of new PUC norms: Out of 164 pollution testing stations, 40 stations have been upgraded. 40 b. Report on defaulters: Out of 16.36 Lakh vehicles registered in Hyderabad city, vehicles i.e.,84.73% of vehicles i.e.,10.98lakh vehicles covered by Pollution Under Control Certificates. Transport Department has booked 35931 cases and realized Rs.1.35 crores towards compounding fee from April to November 2006. c. Audits: After networking the pollution testing stations, the results of pollution testing by the pollution testing stations will be audited on fortnightly basis. d. Networking of PUC Centres: Out of 164 pollution testing centers in Hyderabad city, 26 centres have already been networked. Networking of the centers is scheduled to be completed by May, 2007 as per the programme given below: Month Jan. to Apr., 07 May, 07 Centres 120 (30 / month) 44 e. Integration of vehicle registration data: Database of Transport Dept. has already been integrated with Cyberabad Police and plans are afoot to provide access to Police Department for integration on department to department basis by March, 2007. f. Lambda measurement: The department would take up Lambda measurements on receipt of the decision of Hon’ble Supreme Court in this regard. 41 Warangal : It is 120 km northeast to Hyderabad and lies in 18.0 Deg North and 79.58 Deg East. The district is bounded by Karimnagar District to the north, Khammam District to the east and southeast, Nalgonda District to the southwest, and Medak District to the west. Warangal is well known for granite quarries (notably the black and brown varieties), grain market for rice, chillies, cotton, and tobacco. APPCB is monitoring ambient air quality at three locations in the city of the Warangal. The three locations are Balasamudram and Nakkalagutta representing residential/commercial areas and the third station at IDA Rampur representing industrial area. The monthly average concentration of the RSPM and TSPM of the Warangal city are given in the graph below Graph showing monthly averages of RSPM and TSPM in Warangal RSPM Balasamudram 500 RSPM Nakkalagutta RSPM IDA, Ramapur 450 TSPM Balasamudram 400 TSPM Nakkalagutta TSPM IDA, Ramapur Conc in ug/m3 350 300 250 200 150 100 50 0 January February March April May June July August September October November December Months Observations on RSPM & TSPM At Nakkalagutta the concentrations of RSPM is highest and is exceeding the NAAQS. The RSPM concentrations at Balasamudram and IDA, Rampur are within the NAAQS. The TSPM concentrations are highest at Nakkalagutta. The concentrations of TSPM are exceeding at Balasamudram and Nakkalagutta. At IDA, Rampur the concentrations are within the limits. The percentage of RSPM in TSPM is around 34%. The RSPM concentrations are highest in winter followed by rainy and summer and TSPM is highest in winter followed by summer and rainy season. Concentrations of gases The SO2 levels are within the NAAQS and are in the range of 4 to 7ug/m3. The NOx levels are within the NAAQS and are in the range of 9 to 38ug/m3 42 Karimnagar District: Karimnagar, is a city and a Municipal Corporation in Karimnagar district. It is located towards northern region of Andhra Pradesh on the banks of the Manair river, which is a tributary of the river Godavari. Karimnagar is located at 18°26′N 79°09′E18.43, 79.15. The predominant industries include mining and quarrying, agro-business, food processing, cotton yarn and fabrics, non-metallic mineral products, engineering, hardware and power generation. The Ramagundam Super Thermal Power Station is the biggest thermal power producing facility in the state. APPCB is monitoring ambient air quality at godavarikhani. This station is operated under the NAMP Programme Graph showing monthly averages of RSPM and TSPM in Karimnagar 450 400 RSPM TSPM 350 Conc. in ug/m3 300 250 200 150 100 50 m ec e D N ov e m be r be r er O ct m be pt e ob r t Se Au gu s ly Ju ne Ju M ay ril Ap ch M ar ry br ua Fe Ja nu ar y 0 Months Observations on RSPM & TSPM At Godavarikhani the concentrations of RSPM and TSPM are exceeding the NAAQS. The percentage of RSPM to TSPM is around 32% The concentrations are highest in the winter season followed by summer. Rainy season is the least polluted In rainy season the % of RSPM to TSPM is around 20%. Concentrations of gases The SO2 levels are within the NAAQS and are in the range of 4 to 15ug/m3. The NOx levels are within the NAAQS and are in the range of 9 to 22ug/m3 43 Ambient air quality in Visakhapatnam Zone This zone consists of five districts Srikakulam, Vizianagaram, Visakapatnam, East and West godavari districts. Visakhapatnam city: Visakhapatnam is situated in the North-eastern coast of Andhra Pradesh, at a latitude of 17O42’N and longitude of 83O20’E. The city stretches from north to south on a ridge and is located in a spoon shaped basin, surrounded by hills on three sides with Bay of Bengal on the East. The total city area is situated within a distance of 10 km from the shore. All the residential areas fall within this area. The entire city lies within the two prominent hill ranges, namely Yarada and Adivivaram. 44 The major air pollution sources are the port trust activities and hectic industrial activity. There are 9 ambient air quality monitoring stations. Six stations are operated under the NAMP. These stations are located at different zones to asses the ambient air quality of Visakhapatnam. Station name Industrial Estate, Marripalem, NAMP Panchayat Raj Office, Mindi, NAMP Police barracks, NAMP INS, Virabahu, NAMP Seetammadhara, NAMP Ganapuram area, NAMP St. Alloys MCV Kalyana Mandapam St. John Paris Zone Industrial Residential Residential Sensitive Residential Residential Residential Residential Residential NAMP data for RSPM and TSPM for the year 2007 Graph showing monthly averages of RSPM and TSPM in Visakhapatnam IE, Marripalem RSPM 300 Mindi RSPM Conc. in ug/m3 250 Police Barracks RSPM INS, Virabahu RSPM 200 Seetammadhara RSPM Gnanapuram RSPM 150 IE, Marripalem TSPM 100 Mindi TSPM Police Barracks TSPM INS, Virabahu TSPM 50 Au gu st Se pt em be r O cto be r No ve m be r De ce m be r Ju ly Ju ne M ay Ap ri l h M ar c Ja nu ar y Fe br ua ry 0 Seetammadhara TSPM Gnanapuram TSPM Months Observations on RSPM and TSPM at Vizag: The annual averages of RSPM and TSPM are exceeding the NAAQS RSPM constitutes about 50% of the TSPM. The % of RSPM is higher when compared to that of the Hyderabad city. This may be due to the sea salt spray in the atmosphere contributing to the higher RSPM. 45 Police barracks location has higher concentrations than other stations. The range of RSPM concentrations varied from 72 to 117ug/m3 and the TSPM 150 to 264ug/m3. INS veerabahu has the lowest concentrations of all the stations. Ambient air quality data with respect to particulate matter of all the stations monitored at Visakapatnam: Graph showing the concentrations at all the nine stations in Vizag. 250 200 194 186 196 207 89 150 96 91 MCV Mandapam St. John Paris 183 97 103 location 100 157 St.Alloys conc in ug/m3 178 180 91 Mindi Police Barracks 50 77 Marripalem 89 Veerabahu 0 Seetammadhara 2007 TSPM 2007 RSPM parameters Observations: The annual average at Police barracks is highest for both RSPM and TSPM. All the stations are exceeding the standards prescribed for RSPM and TSPM INS veerabahu location is the least polluted of all the stations. The concentrations of RSPM ranged from 77- 102ug/m3 and that of TSPM ranged from 157-207ug/m3 46 Seasonal variation of pollutants --- Ambient Air Quality of Visakhapatnam – 2007 Area wise seasonal average with the range of concentrations for the year 2007 in Visakhapatnam 300 Summer Average Rainy average Winter average 200 79 157 157.75 75 77.75 156.75 207 185 102 92 91 184 189 95 89.5 50 183 100 177.25 150 87.5 Conc. in ug/m3 250 0 TSPM RSPM TSPM RSPM Industrial Residential TSPM RSPM Sensitive Locations Observations on the seasonal averages: The concentration at sensitive place does not show any significant variation in RSPM and SPM concentrations across the seasons. Sensitive area has lower summer concentration than that of the winter and rainy. This is very unlikely and probably might have been a result of localised activity during this season. The concentrations at residential and industrial places have higher concentrations in winter followed by summer. The concentrations of RSPM and TSPM are generally anticipated to be on higher side in summer season when compared to rainy season. But there wasn’t significant variation of the concentration in summer and rainy season. 47 SO2 and NOx concentrations in the Visakapatnam city for the year 2007 Table showing the seasonal variations of SO2 and NOx in Visakapatnam Industrial 2007 Residential Sensitive SO2 Nox SO2 Nox SO2 Nox Summer 8 30 9 30 8 30 Rainy 8 30 8 30 8 30 Winter 8 30 9 30 9 30 Conc in ug/m3 Remarks on SO2 and NOx in Visakapatnam: The annual average concentrations for SO2 and NOx are around 9 and 30ug/m3 respectively. The concentrations of Sulphur dioxide and Oxides of Nitrogen (NOx) are meeting prescribed standards. The concentrations of SO2 are high when compared to the Hyderabad city, this may be due to the industrial activity 48 East Godavari District: It is located in the North coastal part of the state. The district is known as rice bowl of AP. The district has an area of 10,807Sq.Km. The district Head Quarter is Kakinada. APPC is monitoring the Ambient air at Kakinada. The monthly average values are depicted in the graph below: RSPM & TSPM concentrations in East Godavari for the year 2007 140 East Godavari RSPM 120 East Godavari TSPM Conc. in ug/m3 100 80 60 40 20 be r m De ce be r m No ve er Oc t m be pt e ob r t Se Au gu s ly Ju ne Ju M ay ril Ap ch M ar ry br ua Fe Ja n ua ry 0 Months Observations: The concentrations of RSPM and TSPM are with in the NAAQS. The percentage of RSPM to TSPM is in the range of 46%. The RSPM concentrations ranged from 48 to 53ug/m3 and the TSPM concentrations are in the range of 104-119ug/m3. The concentrations are uniform through out the year with a narrow range of fluctuations. 49 West Godavari dist: The district is in the delta regions of the Krishna and Godavari rivers. It lies between 16o 15i and 17o 30I in north and 80o55I and 81o55I in the east. The district has an area of 7742SqKms.The district has rich offshore reserves with high agriculture and moderate industrial activity. Eluru is the head quarter of the district. APPCB is monitoring the ambient air quality in Eluru. The monthly average values of RSPM and TSPM are given in the graph. RSPM & TSPM concentrations in West Godavari for the year 2007 200 West Godavari RSPM West Godavari TSPM 180 160 Conc. in ug/m3 140 120 100 80 60 40 20 De ce m be r No ve m be r cto be r O be r Se pt em Au gu st Ju ly Ju ne ay M Ap ri l ar ch M y Fe br ua r Ja nu ar y 0 Months Observations: The concentrations of RSPM and TSPM are exceeding the NAAQS. The percentage of RSPM to TSPM is in the range of 44.75%. The RSPM concentrations ranged from 77 to 86ug/m3 and the TSPM concentrations are in the range of 171-188ug/m3. The concentrations are uniform through out the year with a narrow range of fluctuations. 50 Vizianagaram: The district is located in the north eastern part of the AP. It is bounded by eastern ghats. The geographical co-ordinates are 15o15I and 19o15I of North and 830 00I and 83o45I of the eastern longitude. APPCB is monitoring the ambient air quality at Vizianagaram town. The monthly average values of RSPM and TSPM are given in the graph. RSPM & TSPM concentrations in Vizianagaram for the year 2007 250 Vizianagaram RSPM Vizianagaram TSPM Conc. in ug/m3 200 150 100 50 De ce m be r No ve m be r cto be r O be r Se pt em Au gu st Ju ly Ju ne ay M Ap ri l ar ch M Fe br ua ry Ja nu ar y 0 Months Observations: The concentrations of RSPM and TSPM are exceeding the NAAQS. The percentage of RSPM to TSPM is in the range of 47.5%. The RSPM concentrations ranged from 50-104ug/m3 and the TSPM concentrations are in the range of 128-202ug/m3. The concentrations are higher in winter and summer. 51 Srikakulam The district is located in the extreme north eastern part of the AP. It is bounded by eastern ghats. The geographical co-ordinates are 18o20I and 19o10I of North and 830 50I and 84o50I of the eastern longitude. The total area of the district is 5837SqKm. The APPCB is monitoring the ambient air in Srikakulam town. The monthly average values of RSPM and TSPM are given in the graph. RSPM & TSPM concentrations in Srikakulam for the year 2007 250 Srikakulam RSPM Srikakulam TSPM Conc. in ug/m3 200 150 100 50 De ce m be r No ve m be r cto be r O be r Se pt em Au gu st Ju ly Ju ne ay M Ap ri l ar ch M Fe br ua ry Ja nu ar y 0 Months Observations: The concentrations of RSPM and TSPM are exceeding the NAAQS. The percentage of RSPM to TSPM is in the range of 50%. The RSPM concentrations ranged from 48-105ug/m3 and the TSPM concentrations are in the range of 98-206ug/m3. The concentrations are higher in winter and summer. 52 Vijayawada Zone: Vijayawada zone has five districts under its jurisdiction they are Guntur, Khammam, Krishna, Nellore and Prakasam 53 Krishna District: The geographical co-ordinates are 15o43I and 17o10I of North and 800 0I and 81o33I of the eastern longitude. The total area of the district is 8,727 Sq.Kms. The Head quarters is Machilipatnam. The main city and is commercially active part of the district is Vijayawada city. Vijayawada is on the banks of the Krishna River. Vijayawada is encircled by the Indrakiladri hills in the West and the Budameru River in the North. Vijayawada is spread over an area of 58 square kilometers and serves as the largest railway junction of the south central railway. The city has hectic commercial, moderate industrial activity and dense in population. APPCB is monitoring the ambient air at three locations in the city. These stations are located at 1. Benz circle (Residential / Commercial) monitored under NAMP 2. Police control Room (Residential / Commercial) 3. Autonagar (Industrial) The monthly average values of RSPM and TSPM are given in the graph. RSPM & TSPM concentrations in Vijayawada for the year 2007 Autonagar RSPM Police Control Room RSPM 300 Benz circle (NAMP) RSPM AutonagaTSPM Police Control Room TSPm Benz circle (NAMP) TSPM 250 150 100 50 No ve m be r De ce m be r ct ob er O t em be r Se pt Months Au gu s Ju ly Ju ne ay M Ap ril ar ch M y Fe br ua ry 0 Ja nu ar conc in ug/m3 200 54 Observations: The concentrations of RSPM and TSPM are exceeding the NAAQS. The concentrations are highest at Autonagar and the lowest in police control room The percentage of RSPM to TSPM is in the range of 40% at autonagar and at the other two stations it is around 45%. This may be due to contribution of coarser particles due to movement of vehicles. The RSPM concentrations ranged from 69-106ug/m3 and the TSPM concentrations are in the range of 152-271ug/m3. The concentrations are higher in winter and summer seasons. Gaseous parameters: SO2 and NOx in Vijayawada for the year 2007 60 50 conc in ug/m3 40 SO2 Autonagar 30 SO2 Police Control Room SO2 Benz circle (NAMP) Nox Autonagar Nox Police Control Room 20 Nox Benz circle (NAMP) 10 0 January February March April May June July August September October November December Month Observations: The annual average concentrations for SO2 and NOx are around 6 and 41ug/m3 respectively. The sulphur dioxide is in the range of 4-11ug/m3 and oxides of nitrogen are in the range of 27 to 54 ug/m3 The concentrations of Sulphur dioxide and Oxides of Nitrogen (NOx) are meeting prescribed standards. 55 Khammam The district has an area of 16,029Sq.Kms. Coal Mining activity, granites and thermal power plant are located here. APPCB is monitoring the ambient air at the district headquarters and at Paloncha where the thermal power plant and sponge iron plant are located. The monthly average values of RSPM and TSPM are given in the graph. RSPM & TSPM concentrations in Khammam for the year 2007 160 RSPM Jalasoudha (Khammam) RSPM Paloncha University TSPM Jalasoudha (Khammam) 140 TSPM Paloncha University conc in ug/m3 120 100 80 60 40 20 0 January February March April May June July August September October November December Months Observations: The concentrations of RSPM and TSPM are with in the limits of NAAQS. The percentage of RSPM to TSPM is in the range of 60%. The RSPM concentrations ranged from 34-68ug/m3 and the TSPM concentrations are in the range of 46-137ug/m3. The range of concentrations is very wide and hence more fluctuations The concentrations are higher in winter and summer. 56 Guntur The district is located at 40miles from the bay of Bengal towards north. The geographical co-ordinates are 16o20I of North and 800 27I of the eastern longitude. APPCB is monitoring the ambient air in Guntur.. The monthly average values of RSPM and TSPM are given in the graph. Monthly average Concentrations of RSPM and TSPM at Guntur for the year 2007 200 Guntur RSPM 180 Guntur TSPM 160 conc in ug/m3 140 120 100 80 60 40 20 0 February March April May June July August September October November December Months Obsevations: The concentrations of RSPM and TSPM are exceeding the NAAQS. The percentage of RSPM to TSPM is in the range of 44%. The RSPM concentrations ranged from 65-84ug/m3 and the TSPM concentrations are in the range of 130-185ug/m3. The concentrations are higher in winter and summer. 57 Nellore and Prakasam The district is located at 40miles from the bay of Bengal towards north. The geographical co-ordinates are 14o25I of North and 790 58I of the eastern longitude. The district head quarter is located at Nellore. Prakasam has its head quarter located at Ongole. APPCB is monitoring the ambient air quality for the SPM parameter only. The monthly average values of SPM are given in the graph. Monthly average values of SPM for Nellore and Prakasam for the year 2007 74 Vidyut Bhavan (Nellore) Prakasam 72 conc in ug/m3 70 68 66 64 62 60 January February March April May June July August September October November December Months Obsevations: The concentrations of SPM are with in the limits of the NAAQS. The SPM concentrations for nellore ranged from 66-72ug/m3 and for Prakasam the concentrations range from 68-72ug/m3 The concentrations are lowest in rainy season and winter and summer having higher concentrations. 58 Kurnool Zone This zone consists of the four districts of Rayalaseema area. They are Kurnool, Anatapur, Cuddapah and Chittore. Map showing the Kurnool Zone of APPCB with industries 59 Kurnool:It has two important mountain ranges running parallel from North to South. They are Erramalla and Nallamala forest range. The total area of the district is 17600Sq.Kms. There are three ambient air monitoring stations in Kurnool. They are: 1. Industrial estate Kallur representing industrial area 2. Poola bazaar representing commercial area 3. Krishna nagar representing residential and commercial area. Monthly averages of RSPM and TSPM of Kurnool city for the year 2007 200 Poolabazar RSPM 180 IE, KallurRSPM Mourya InnRSPM 160 PoolabazarTSPM IE, KallurTSPM Conc in ug/m3 140 Mourya Inn TSPM 120 100 80 60 40 20 De ce mb er No ve mb er Oc to be r be r Se pt em Au gu st Ju ly Ju ne ay M Ap ri l ar ch M Fe br ua ry Ja nu ar y 0 Months Obsevations: The concentrations of RSPM and TSPM are exceeding the NAAQS. The percentage of RSPM to TSPM is in the range of 50%. The RSPM concentrations ranged from 56-93ug/m3 and the TSPM concentrations are in the range of 105-182ug/m3. The data was not available from August to December 07. 60 Anatapur, Cuddapah and Chittore: APPCB is monitoring the ambient air quality in the head quarters of the three districts. The monthly average concentration of the RSPM and TSPM are given in the graph below. Monthly average concentrations of RSPM and TSPM for the year 2007 180 160 140 Conc in ug/m3 120 Ananthapur RSPM Cuddapah RSPM 100 Chittoor RSPM Ananthapur TSPM 80 Cuddapah TSPM Chittoor TSPM 60 40 20 De ce mb er No ve mb er Oc to be r be r Se pt em Au gu st Ju ly Ju ne ay M Ap ri l ar ch M Fe br ua ry Ja nu ar y 0 Month Observations: The RSPM concentrations are exceeding the standards of NAAQS at Anantapur but are meeting the standards at Cuddapah and Chittore. The TSPM concentrations are exceeding the standards at all the three locations The % of RSPM to TSPM is 50% at Anantapur. In Cuddapah and Chittoor the % of RSPM to TSPM is 33% The concentrations are uniform most of the time through out the year. 61 Ambient air quality in Tirupathi (Kurnool zone) It is the holy town and abode of the Lord Venkateswara. Daily large number of vehicles carrying the devotee’s moves on the roads of Tirupathi. There are 2 ambient air quality-monitoring stations 1. GNC toll gate (Sensitive) 2. Regional science center (Sensitive) RSPM Regional Science Centre (NAMP) January TSPM GNC Toll gate Regional Science Centre (NAMP) GNC Toll gate 25 32 84 111 February 25 34 86 115 March 26 35 84 119 April 27 48 112 128 May 29 49 89 126 June 25 42 108 112 July 25 37 82 111 August 28 36 89 112 September 24 33 86 108 October 23 26 86 88 November 27 31 88 95 December 29 30 93 94 2007 Conc in ug/m3 Remarks: The RSPM concentrations are meeting the annual standards. TSPM is not meeting the annual standards The RSPM concentrations ranged from 22 to 55ug/m3. The TSPM concentrations ranged from 82 to158ug/m3. The % contribution of RSPM to TSPM is 36% 62 Ambient air quality in Ramachandrapuram Zone This zone consists of the four districts. They are Medak, Nalgonda, Nizamabad and Adilabad. 63 Nalgonda district: The district of Nalgonda is situated in the Southern part of the Telangana Region covering an area of 14,217 Sq. Kms. A district in Andhra Pradesh, Nalgonda's global location is between 1625' and 17-50' of the Northern Latitude and 78-40' and 80-05' of Eastern longitude. APPCB is monitoring AAQ at four locations viz., RO Nalgonda, Mellacheruvu, Ramapuram and Dondapadu. Monthly average values of RSPM & TSPM in Nalgonda in the year 2007 210 190 RO Nalgonda RSPM RO Nalgonda TSPM 170 Conc. in ug/m3 Mellacheruvu RSPM 150 Mellacheruvu TSPM Ramapuram RSPM 130 Ramapuram TSPM 110 Dondapadu RSPM Dondapadu TSPM 90 70 ug us t pt em be r O ct ob er N ov em be r D ec em be r Months Se A Ju ly Ju ne ay M pr il A ar ch M Ja nu ar y Fe br ua ry 50 Remarks: The annual average concentration of RSPM (88ug/m3) and TSPM(197ug/m3) at Ramapuram are highest when compared to other stations at Nalgonda. The lowest concentrations are recorded in Mellacheruvu. All the stations are exceeding the NAAQS for both RSPM and TSPM The % contribution of RSPM to TSPM is 45% The concentrations of RSPM ranged from 55 to 88ug/m3 and that of TSPM ranged from 125 to 197ug/M3 The concentrations in winter season is higher when compared to other seasons The concentration of SO2 was below 5ug/m3 and that of NOX are below 10ug/m3 64 Nizamabad district: Nizamabad District lies on the north-western side of Andhra Pradesh. Nizamabad covers an area of 7,956 sq km. Forest cover is significant and is estimated to be to a tune of 170,000 hectares APPCB is monitoring AAQ at Nizamabad under the SAAQM programme at Subhash nagar area. The monthly average values of RSPM and TSPM for the year 2007 are depicted in the graph: Monthly trends of RSPM and TSPM levels in Nizamabad RO 250 Conc. in ug/M3 200 150 RSPM TSPM 100 50 0 Jan, 07 Feb, 07 Mar, 07 April, 07 May, 07 June, July, 07 August, Sep, 07 Oct, 07 Nov, 07 Dec, 07 07 07 Months & Year Remarks: The RSPM and TSPM concentrations are exceeding the standards prescribed The RSPM concentrations ranged from 42 to 83ug/m3. The TSPM concentrations ranged from 110 to 215ug/m3. The % contribution of RSPM to TSPM is 38% 65 Medak District: Medak is a district situated in the Telangana region of Andhra Pradesh, India. Sangareddy is the district headquarters of Medak It is 100 km to the north of Hyderabad. The district has hectic industrial activity with many number of bulk drug industries. Conc. in ug/m3 Patancheru RSPM TSPM SO2 Nox January 45 136 21 22 February 40 121 15 15 March 38 123 15 15 April 44 86 20 25 July 44 86 20 25 August 90 101 - - September 110 225 - - October 130 248 - - November 123 425 38 93 December 130 480 30 52 Observations: The concentration of RSPM and TSPM has increased from the onset of rainy season with the concentrations touching the peak in October and December. The reasons for sudden increase in the concentrations are due to shifting of the station and hectic road widening works taken up on the National Highway. The concentrations of RSPM are with in the limits in the first quarter but have exceeded in the rest of the months. The annual average is exceeding the standards prescribed for both RSPM and TSPM. The concentration of Sulphur dioxide is higher than other places in the state. This may be due to the industrial activity and vehicular movement in the near by area. However the concentrations of the gaseous parameters are well with in the standard limits. 66 Air quality Assessment The air quality of different cities / towns with respect to three criteria pollutants (RSPM, TSPM, NO x) has been compared with the respective NAAQS and has been categorized into four categories based on exceedance factor (EF) EF = Observed annual mean conc. of criteria pollutant -----------------------------------------------------------------------------Annual standard for the respective pollutant and area class The four air quality categories are: Critical pollution(C) - when EF is more than 1.5. High pollution(H) – when EF is between 1.0 to 1.5 Moderate pollution(M) – when EF is between 0.5 to 1.0 Low pollution(L) – when the EF is less than 0.5 It is obvious from the above categorisation, that the locations in either of the first two categories are actually violating the standards, although with varying magnitude. Those falling in the third category are meeting the standards as of now but likely to violate the standards in future if pollution continues to increase and is not controlled. However, the locations in low pollution category have rather pristine air quality and such areas are to be maintained at low pollution level by way of adopting preventive and control measures of air pollution. 67 Table showing air pollution category of the stations monitored 1 Abids Res/Com 107 1.8 C 328 2.34 C % of PM10 in TSPM 32.6 2 Punjagutta Res/Com 139 2.3 C 389 2.78 C 35.7 3 Paradise Res/Com 108 1.8 C 323 4.61 C 33.4 4 Charminar Res/Com 99 1.65 C 297 2.12 C 33.3 5 Zoo Park Sensitive 49 0.98 M 131 1.87 C 37.4 6 KBRN Park Sensitive 45 0.90 M 118 1.69 C 38.1 7 Balanagar Ind. 96 0.80 M 304 0.84 M 31.6 8 Uppal Ind. 100 0.83 M 270 0.75 M 37.0 9 Jubilee Hills Res 49 0.82 M 143 1.02 H 34.3 10 MG Bus Station Res/Com 79 1.32 H 213 1.52 C 37.1 11 Chikkadapally Res/Com 79 1.32 H 213 1.52 C 37.1 12 Langarhouse Res/Com 153 2.55 C 409 2.92 C 37.4 13 Jeedimetla Ind 89 0.74 M 266 0.74 M 33.5 14 Nacharam Res/Com 86 1.43 H 259 1.85 C 33.2 15 Madhapur Res/Com 54 0.90 M 146 1.04 H 37.0 16 Kukatpally Res/Com 70 1.17 H 204 1.46 H 34.3 17 Sainikpuri Res/Com 53 0.88 M 143 1.02 H 37.1 18 Rajendranagar Res/Com 47 0.78 M 129 0.92 M 36.4 19 Shameerpet Res/Com 48 0.80 M 132 0.94 M 36.4 20 HCU Res/Com 49 0.82 M 124 0.89 M 39.5 21 BPPA Res/Com 70 1.17 H 196 1.40 H 35.7 22 Mella cheruvu Res/Com 72 1.20 H 156 1.11 H 46.2 23 Nalgonda Res/Com 76 1.27 H 169 1.21 H 45.0 24 Ramapuram Res/Com 81 1.35 H 183 1.31 H 44.3 25 Dondapadu Res/Com 76 1.27 H 168 1.20 H 45.2 26 Subhash Nagar Res/Com 61 1.02 H 159 1.14 H 38.4 S No Location AC RSPM EF C TSPM EF C 68 S No 27 RSPM EF C TSPM EF C % of PM10 in TSPM Res/Com 103 1.72 C 237 1.69 C 43.5 Location Sanga Reddy town AC 28 Patancheru Ind 80 0.67 M 203 0.56 M 39.4 29 Autonagar Ind 90 0.75 M 237 0.66 M 38.0 30 Benz circle Res/Com 85 1.42 H 188 1.34 H 45.2 Res/Com 76 1.27 H 155 1.11 H 49.0 Res/Com 70 1.17 H 161 1.15 H 43.5 31 32 Police control room Guntur Municipal Corpn. 33 Vidyut Bhavan Res/Com 70 0.50 M 0.0 34 Prakasham Res/Com 130 0.93 M 0.0 35 Khammam Res/Com 53 0.88 M 174 1.24 H 30.5 36 Paloncha, IE Ind 58 0.48 L 187 0.52 M 31.0 Res/Com 89 1.48 H 186 1.33 H 47.8 37 MCV Kalyana Mandapam 38 St. John Parish Res/Com 96 1.60 C 214 1.53 C 44.9 39 St. Alloysius Res/Com 91 1.52 C 200 1.43 H 45.5 40 Mindi Res/Com 97 1.62 M 195 1.39 H 49.7 41 Police Barracks Res/Com 103 1.72 H 156 1.11 H 66.0 42 Marripalem Ind 91 0.76 M 164 1.17 H 55.5 43 Veerabahu Sen 77 1.54 C 97 1.39 H 79.4 44 Seetammadhara Res/Com 89 1.48 M 104 0.74 M 85.6 45 Gnanapuram Res/Com 90 1.50 C 182 1.30 H 49.4 46 Vizianagaram Res/Com 74 1.23 H 157 1.12 H 47.1 47 Srikakulam Res/Com 75 1.25 H 220 1.57 C 34.1 48 Eluru Res/Com 81 1.35 H 238 1.70 C 34.0 49 Kakinada Ind 51 0.43 L 231 0.64 M 22.1 50 Poola bazar Res/Com 61 1.02 H 225 1.61 C 27.1 69 51 I.E. Kallur Ind 66 0.55 M 185 0.51 M % of PM10 in TSPM 35.7 52 Krishna Nagar Res/Com 82 1.37 H 277 1.98 C 29.6 53 Anantapur Res/Com 74 1.23 H 278 1.99 C 26.6 Sen 26 0.52 M 252.0 3.60 C 10.3 Sen 36 0.72 M 295.0 4.21 C 12.2 Res/Com 45 0.75 M 169 1.21 H 26.6 S No Location AC RSPM EF C TSPM EF C Regional S. 54 Centre (Tirumala Hills) GNC Toll gate 55 (Alipiri) Nutrine 56 Confectionary (Chittore) 57 Cuddapah Res/Com 53 0.88 M 264 1.89 C 20.1 58 Godavarikhani Res/Com 73 1.22 H 170 1.21 H 42.9 59 Balasamudram Res/Com 51 0.85 M 150 1.07 H 34.0 60 Nakkalagutta Res/Com 75 1.25 H 174 1.24 H 43.1 AC: Area category EF: Exceedance factor C: Category as per air quality assessment RSPM and TSPM concentrations in ug/m3 70 Noise Pollution Sound and Noise: The word noise is derived from the Latin term "nausea". It has been defined as "unwanted sound, a potential hazard to health and communication dumped into the environment with regard to the adverse effect it may have on unwilling ears." Noise is defined as unwanted sound. Sound which pleases the listeners is music and that which causes pain and annoyance is noise. At times, what is music for some can be noise for others. Sound is any pressure variation (in air, water or other medium) that the human ear can detect. Longitudinal motion of the particles of the transmitting medium produces pressure oscillations (compressions and rarefactions) causing ambient pressure. The major sources of noise are: Vibrating bodies Aerodynamic phenomena Explosions Units of Noise: The frequency of a vibration is expressed as the number of vibrations per second (i.e. inversely proportional to the period) in Hertz (Hz). Audible sound for fit, healthy young people is from 20Hz-20,000Hz, with maximum sensitivity at around 3,000Hz. Frequencies below 20Hz are called 'infrasound' and those above 20,000Hz 'ultrasound'. The numerical magnitude of a sound is normally expressed as the sound pressure level in logarithmic decibel units (dB): where P is the sound pressure being measured and P0 the reference sound pressure, normally taken as 0.0002µbar (=20µPascals). 71 Average and peak sound pressure levels for the year 2007 in Hyderabad city 100.00 90.00 Average Peak 80.00 Noise levels in dB(A) 70.00 60.00 50.00 40.00 30.00 20.00 10.00 0.00 Abids Punjagutta Paradise Charminar Zoopark KBRN Park Locations Remarks: The average and peak sound pressure levels indicate that inhabitants of the Hyderabad city are exposed to elevated levels of sound pressure levels. The noise levels are around 80dB in the traffic and commercial areas. The sensitive places viz Zoopark and KBRN park too have higher sound pressure levels of 67 and 69dB respectively. The monitoring is carried in the day time. Sound pressure levels of all the areas recorded indicate that they are crossing the standards prescribed for the respective areas. 72 Noise levels at Visakhapatnam Average and Peak Sound Pressure Levels for the year 2007 in Visakhapatnam 160.0 140.0 120.0 Average Noise levels dB(A) Peak 100.0 I 80.0 range of noise levels 60.0 108.6 88.5 109.4 108.6 108.3 88.8 88.2 89.5 40.0 20.0 0.0 Seetammadhara Marripalem Jagadamba centre RTC Complex Locations Remarks: The noise levels are around 88dB in the traffic and commercial areas. The monitoring is carried in the day time. Sound pressure levels of all the areas recorded indicate that they are crossing the standards prescribed for the respective areas. Legal provisions for abatement of noise pollution: Section 2(a) of the Air (Prevention and Control of Pollution) Act, 1981, includes noise in the definition of 'air pollutant'. Section 2(a) "air pollutant" means any solid, liquid or gaseous substance including noise present in the atmosphere in such concentration as may be or tend to be injurious to human beings or other living creatures or plants or property or environment. The Environment (Protection) Act,1986. Although there is no specific provision to deal with noise pollution, the Act confers powers on Government of India to take measures to deal with various types of pollution including noise pollution. The Government of India framed and published Noise Pollution Control and Regulation Rules, 1999. On 11.10.2002 the Government of India brought in an amendment in the Rules. The amendment empowered the State Government to permit use of loudspeaker or public address 73 system during night hours (between 10 pm and 12 pm mid-night) on or during the cultural or religious occasions for a limited period not exceeding 15 days. Right to Life includes Freedom from Noise Pollution. This was held by the Supreme Court of India in the year 2005 in Forum, Prevention of Environment and Sound Pollution and Union of India and Another case. Accordingly, noise pollution was geared to prohibit on the grounds that it disturbs a person’s daily life. The use of Fireworks has led to air pollution in the form of noise and smoke. Their excessive use has started to be a public hazard and violation of their fundamental rights as enshrined in the Constitution of India. It has been held in the case of "Om Birangana Religious Society v. State, 100 CWN 617" that the "Freedom of speech and expression guaranteed under Article 19(1)(a) of the Constitution of India includes, by necessary implication, freedom not to listen and/or to remain silent. A citizen has a right to leisure, right to sleep, right not to hear and right to remain silent. He also has the right to read and speak with others". Because of the tremendous sound and noise, the citizens cannot exercise all these fundamental rights. It has been seen that firecrackers noise is an impulsive noise and is hazardous. Bursting of a firecracker near the ear can lead sometimes to non-recoverable hearing loss. The Noise Pollution (Regulation and Control) Rules, 2000. In order to curb the growing problem of noise pollution, the Government of India has enacted the Noise Pollution (Regulation and Control) Rules, 2000. Prior to the enactment of these rules noise pollution was not being dealt specifically by a particular Act. Subsequently the Government of Andhra Pradesh has made rules and regulations to control the noise pollution(G.Ort No.227 The main provisions of the noise rules are as under 1. The State Government may categorize the areas into industrial, commercial, residential or silence areas/zones for the purpose of implementation of noise standards for different areas. 2. The ambient air quality standards in respect of noise for different areas/zones has been specified for in the Schedule annexed to the Rules. 3. The State Government shall take measures for abatement of noise including noise emanating from vehicular movements and ensure that the existing noise levels do not exceed the ambient air quality standards specified under these rules. 4. An area comprising not less than 100 meters around hospitals, educational institutions and courts may be declared as silence area/zone for the purpose of these rules. 5. A loudspeaker or a public address system shall not be used except after obtaining written permission from the authority and the same shall not be used at night i.e. between 10.00p.m. and 6.00 a.m. 6. A person found violating the provisions as to the maximum noise permissible in any particular area shall be liable to be punished for it as per the provisions of these rules and any other law in force. 74 Motor Vehicles Act, 1988, and Rules framed there under Rules 119 and 120 of the Central Motor Vehicles Rules, 1989, deal with reduction of noise. Rule 119. Horns (1) Provided that on and from 1st January, 2003, the horn installation shall be as per AIS-014 specifications, as may be amended from time to time, till such time as corresponding Bureau of Indian Standards specifications are notified. (2) No motor vehicle shall be fitted with any multi-toned horn giving a succession of different notes or with any other sound-producing device giving an unduly harsh, shrill, loud or alarming noise. Rule 120 Silencers (1) Every motor vehicle including agricultural tractor shall be fitted with a device (hereinafter referred to as a silencer) which by means of an expansion chamber or otherwise reduces as far as practicable, the noise that would otherwise be made by the escape of exhaust gages from the engine. (2) Noise standards - Every motor vehicle shall be constructed and maintained so as to conform to noise standards specified in Part E of the Schedule VI to the Environment (Protection) Rules, 1986, when tested as per IS: 3028-1998, as amended from time to time. Fire crackers At present the maximum permissible sound level for firecrackers as per the noise standard is provided by Item 89, Sch. I, Table 1.5 of the Environment (Protection) Rules, 1986: "89. Noise Standard for Fire- crackers A. (i) The manufacture, sale or use of fire- crackers generating noise level exceeding 125 dB(AI) or 145dB(C)pk at 4 meters distance from the point of bursting shall be prohibited. (ii) For individual firecrackers constituting the series (joined fire- crackers), the above mentioned limit be reduced by 5 log 10 (N)dB, where N= Number of crackers joined together." Health affects of Noise: Increase in noise results in restlessness, anger, fidgetiness, impulsive behavior and over-reaction to situations. Most crackers used have more than 80 dB noise that can cause temporary hearing loss. Severe noise pollution leads to hearing loss, high blood pressure, heart attack and sleep disturbances. 75 Study carried by APPCB to asses ambient air pollution levels on eve of Deepawali festival celebrations 2007 Introduction: Diwali a socio-religious festival of Hindus is celebrated with great enthusiasm and fervor throughout the length and breadth of the country. It is unique in one way that it transcends the barrier of religion as all sects are involved in firing of crackers. The verbal analogy of Diwali is festival of lights. It marks the victory of good over evil forces. This festival falls in the month of October ending/starting of November (Onset of winter). Its celebrations begin with litting of lights in front of every house and people rejoice with the bursting of crackers. The other social reasons attributed to lighting-up of lights and firing of crackers are to control proliferation of rodents & fleas from the riparian Khariff crops and to evade cold. The present scenario of Diwali is totally different as it marks bursting of crackers and other fire works, which increase the exposure of diversified pollutants. The packed materials in the crackers will combust instantaneously releasing energy in the form of an explosion. As a result of which wide array of pollutants are scattered in to the ambient air of which, the main by-products are oxides of carbon, sulphur, nitrogen, Ammonia, Phosphates and other heavy metals. The explosion also helps in lofting of fugitive dust in the finest form. Basically any firecrackers is made up of three main components viz.,black powder to ignite; mixtures of chemicals that produce light and color when heated and flash powder to produce sound. The constituents of the above three are given below S. No 1 2 3 Description Black powder Flash powder Oxidizer Contents Salt-peter (potassium nitrate), charcoal, and sulfur Potassium chlorate or potassium per chlorate, sulfur, and aluminum Potassium or ammonium per chlorate 4 Heavy metals 5 Sky scrappers Aluminum, magnesium, or titanium (white), carbon or iron (orange), sodium compounds (yellow), copper compounds (blue), strontium carbonate (red), and barium mono chloride salts or barium nitrate or barium chlorate (green) Acetone, ammonium per chlorate, benzoic acid, boric acid, calcium carbonate, xylene, chlorine, alcohol sodium fluoaluminate Composition of the crackers: source: Toxic link study To study the chemical composition, particularly of metallic and non-metallic components of crackers, Toxics Link got some samples of sparklers and pots analyzed at the Bombay Natural History Society Laboratory, Mumbai. The following were the chief findings of the laboratory tests. The results showed presence of highly toxic heavy metals like cadmium and lead in addition to other metals like copper, manganese, zinc, sodium, magnesium and potassium in the firecrackers. 76 S.No 1 Metal Cadmium 2 Lead 3 4 5 Magnesium Copper Zinc Description of crackers Anar and wire Crackers Mean concentration Green sparkle Mean concentration Mean concentration Mean concentration Content 6 and 8mg/100mg 5.2mg/100mg 462mg/100g 850mg/100g 2622mg/100g 744mg/100g 324mg/100g Both nitrates and nitrites of few of these metals were present. Oxides of sulphur in the form of sulphate and phosphorous in the form of phosphate were present in the samples. Four acidic radicals --nitrate, nitrite, phosphate and sulphate-- were also detected. The proportion of nitrite, phosphate and sulphate in the crackers was almost similar and ranged between 1160 to 1420 mg/100gm, while nitrates which are strong oxidizing agents, were found in considerable amounts when compared to the other three. Their mean levels were 1624mg/100g. Monitoring Results of AP Pollution Control Board: A.P. Pollution Control Board monitors the ambient air quality on eve of Deepawali every year, and also the Hon’ble Supreme court of India in W.P. No. 72/98 has issued directions for close monitoring of pollutant levels in ambient air during Deepawali. To comply with the directions, ambient air quality of twin cities of Hyderabad and Secunderabad were monitored for parameters Noise, RSPM, TSPM, SO2 and NOx, Sulphates and Nitrate Ambient air quality monitoring a) The ambient air quality measurements were taken up in industrial, Sensitive, Residential, Rural and other places as per the CPCB classification. b) The parameters monitored are; a) Respirable Suspended Particulate Matter (RSPM), b) Suspended Particulate Matter (SPM), c) Sulphur Dioxide (SO2), d) Oxides of Nitrogen (NOx) e) Carbon Monoxide (CO) and f) Noise The above parameters were monitored on the day of Deepawali, two days before and after Diwali from 18.00 to 22.00 hrs. The results and interpretation are detailed below: Meteorological parameters: On the day of Diwali during monitoring average temperature – 24.3OC, relative humidity – 66%, Wind speed – 1.28 m/s and predominate wind direction is East to West. 77 Particulate Matter in ug/M3: Dates 07/11/2007 Residential, Commercial and other rural area RSPM SPM 3 g/M g/M3 137 315 Industrial Sensitive RSPM g/M3 216 SPM g/M3 598 RSPM g/M3 97 SPM g/M3 194 08/11/2007 249 379 143 530 139 188 09/11/2007 798 1037 558 770 551 634 10/11/2007 294 470 222 483 288 372 11/11/2007 163 314 157 399 118 364 The concentrations of the particulate matter has increased on the day of Diwali when compared to pre and post Diwali days The ratio of RSPM with respect to SPM on an average has increased upto 80% (on normal days it is around 40%) on the day of Diwali. Thereby indicating that most of the particulate matter is RSPM only due to bursting of crackers. Residential area has higher concentrations when compared to other areas as the activity is more in this area. Sensitive area has also recorded higher concentrations though there is no direct source. This may be due to the contribution from neighbouring areas. It is observed from the results that the particulates levels in the ambient air one day before Deepawali are very close to the normal day levels but one day after the festival the levels are higher than the normal day. The particulates levels had reached to normal levels two to three days after Diwali. High levels of RSPM and SPM was recorded on the day of Diwali 2007 in the residential area the values are 1202 ug/M3 and 1362 ug/M3 respectively. On the day of Diwali the RSPM and SPM has exceeded the National Ambient Air Quality Standards (NAAQS), in residential, rural and other areas, industrial and sensitive areas for 24 hrs. duration. The average pollutants levels of all stations monitored category wise indicates that, the residential area is the worst affected by particulates followed by sensitive area. 78 Gaseous Pollutants in ug/M3: Dates 07/11/2007 08/11/2007 09/11/2007 10/11/2007 11/11/2007 Residential, Commercial and other rural area SO2 NOx 4.5 33 8 33 75 96 45 55 7 38 Industrial SO2 7 9 64 27 13 Sensitive NOx 41 64 75 58 48 SO2 5 5 69 29 5 NOx 19 26 112 77 28 The concentrations of the gases are highest on the Diwali day. The SO2 level is generally very low and is around 5 ug/m3. On the day of Diwali the concentrations has reached to 75 ug/m3. The concentration of Oxides of Nitrogen (NOx) has increased by three times when compared to normal day. It is observed from the results that the SO2 levels in the ambient air one day before Deepawali are very close to the normal day levels but one day after the festival the levels are higher than the normal day. On the day of Deepawali NOx levels have exceeded the National Ambient Air Quality Standards (NAAQS) prescribed for 24 hrs. average. The highest concentrations of NOx is recorded at KBRN Park (112ug/m3) Comparison of ambient air pollution levels during Deepawali for the years 2006 and 2007 Comparison of pollutant levels during Deepawali 2006 and 2007 Pollutant s Residential, commercial and other rural areas 2006 2007 RSPM ug/M3 TSPM ug/M3 SO2 ug/M3 NOx ug/M3 750 798 No. of ug/m3 increas e/ decreas e 48 *I 2006 2007 558 No. of ug/m3 increase / decreas e 180 *I 558 551 7 *D 964 1037 73 *I 692 770 78 *I 822 634 188 *D 52 75 23 *I 52 64 12 *I 21 69 48 *I 88 96 8 *I 86 75 11 *D 78 112 34 *I Industrial 2006 2007 378 Sensitive No. of ug/m3 increase / decrease *I = increase *D = decrease 79 Comparison of RSPM levels on day of Deepawali for the years 2006 - 2007 900 800 700 Conc. in ug/m3 600 2006 500 2007 400 300 200 100 0 Residential, Commercial, Rural Sensitive Industrial Areas Comparison of TSPM levels on day of Deepawali for the years 2006 2007 1200 1037 1000 964 822 770 Conc. in ug/M3 800 692 634 2006 600 2007 400 200 0 Residential, Commercial, Rural Industrial Sensitive Area 80 Comparison of SO2 levels on day of Deepawali for the years 2006 2007 80 75 69 70 64 60 Conc. in ug/M3 52 52 50 2006 40 2007 30 21 20 10 0 Residential, Commercial, Rural Industrial Sensitive Area Comparison of NOx levels on day of Deepawali for the years 2006 - 2007 120 112 100 96 88 86 Conc. in ug/M3 80 75 78 2006 60 2007 40 20 0 Residential, Commercial, Rural Industrial Sensitive Area 81 There is an increase of concentrations of all the pollutants monitored in comparison to previous year i.e. 2006 with the exception of RSPM and SPM in sensitive area. 82 Noise Levels in twin cities of Hyderabad and Secunderabad during Deepawali festival 2007 To comply with directions of Honb’le Supreme court of India in W.P. No. 72/98 noise levels in twin cities of Hyderabad and Secunderabad were monitored. The monitoring was carried, on the day of Deepawali two days before and after the Deepawali festival to assess the changes in noise levels during Deepawali celebrations. The dates of monitoring were from 07/11/2007 to 11/11/2007 Noise monitoring was carried at 11 stations. The monitoring was carried from 18.00 to 22.00 hrs. Noise levels on the eve of Deepawali 2007 in dB(A) 07/11/2007 08/11/2007 Commercial Residential Industrial Silence 82.48 67.05 75.76 68.65 09/11/2007 (Diwali day) 81.96 71.48 74.17 81.25 88.94 87.90 91.45 89.25 10/11/2007 11/11/2007 81.51 78.77 81.57 78.87 79.80 66.04 68.25 71.5 Noise levels on the Eve of Diwali 2007 in Hyderabad 100 90 80 Noise levels in dB(A) 70 60 Commercial Residential 50 Industrial Silence 40 30 20 10 0 07/11/2007 08/11/2007 09/11/2007 (Diwali day) Dates 10/11/2007 11/11/2007 83 Observations: The noise levels are higher on the day of Diwali when compared to normal day. In all the zones the noise levels are exceeding the standards prescribed. The highest noise levels recorded on day of Diwali is in Tarnaka which is a residential area. On an average the noise levels are highest in industrial area. During normal days the average noise levels of Hyderabad city is in the range of 76 - 82 decibels During pre-Diwali days the noise levels increased slightly from the normal days. There is an increase in noise levels on Diwali day. The noise levels have come back to normal levels after two days. Comparison of noise levels on the eve of Diwali for the period 2006 and 2007 Areas Commercial Residential Industrial Silence 2006 101 101 97 90 Units in dB(A) Decrease 2007 89 12 88 13 92 5 89 1 Comparison of noise levels on the eve of Diwali for the period 2006 and 2007 100 90 Noise levels in dB(A) 80 70 2006 2007 60 50 40 30 20 Commercial zone Residential zone Industrial zone Silence zone Areas 84 When compared to 2006 there is a decrease of noise levels in all the zones. Steps taken by Government 1. The Govt. of Andhra Pradesh has issued GO RT No. 227 to control noise pollution in the state 2. 5 Teams comprising of personnel from APPCB and Police department were formed to check for compliance of firecrackers with national standards notified by Ministry of Environment & Forests (MOEF) Government of India vide GSR 682(E), dated October 5 1999 3. Public awareness campaigns were conducted to educate the people about mal affects of Noise and other types of pollution generated by bursting of crackers 4. Police Department is delegated with powers to control noise pollution through GO RT No. 227. Noise standards for the crackers The Govt. of India has prescribed noise standards for firecrackers as detailed below: The manufacture, sale or use of firecrackers generating noise level exceeding 125 dB(A) or 145 dB(C)pk at 4 m distance from the point of bursting are prohibited. For individual firecrackers consisting the series (joined fire-crackers), the abovementioned limit be reduced by 5 log10 (N) dB, where N=number of crackers joined together. 85 Health effects of air pollutants Harmful effects of various pollutants released into the atmosphere Some of the common health effects caused due to increase in air pollutants are Allergic bronchitis, acute bronchial asthma, chronic bronchitis, emphysema, COPD (chronic obstructive pulmonary diseases), rhinitis, laryngitis, sinusitis, pneumonia and common cold. PARTICLES (PM 10 ) Sources Unlike the individual gaseous pollutants which are single, well-defined substances, particles (PM 10 ) in the atmosphere are composed of a wide range of materials arising from a variety of sources. Concentrations of PM 10 comprise of primary particles, arising from combustion sources (mainly road traffic); secondary particles, mainly sulphate and nitrate formed by chemical reactions in the atmosphere; and coarse particles, suspended soils and dusts, seasalt, biological particles and particles from construction work. Health effects Particulate air pollution is associated with a range of effects on health including effects on the respiratory and cardiovascular systems, asthma and mortality. EPAQS concluded that particulate air pollution episodes are responsible for causing excess deaths among those with pre-existing lung and heart disease, and that there is a relationship between concentrations of PM 10 and health effects, such that the higher the concentration of particles, the greater the effect on health. SULPHUR DIOXIDE Sources Sulphur dioxide is a gas at normal temperature and pressure. It dissolves in water to give an acidic solution which is readily oxidised to sulphuric acid. The predominant source of sulphur dioxide is the combustion of sulphur-containing fossil fuels, principally coal and heavy oils. Health effects Sulphur dioxide causes constriction of the airways by stimulating nerves in the lining of the nose, throat and airways of the lung. The latter effect is particularly likely to occur in those suffering from asthma and chronic lung disease. The effects of sulphur dioxide on sensitive subjects appear almost immediately at the start of exposure. 86 CARBON MONOXIDE Sources Carbon monoxide (CO) is a gas formed by the incomplete combustion of carbon containing fuels. In general, the more efficient the combustion process, the lower the carbon monoxide emission. The main outdoor source of carbon monoxide is currently road transport, in particular petrol-engined vehicles. Health effects The main threats to human health from exposure to carbon monoxide are the formation of carboxyhaemoglobin, which substantially reduces the capacity of the blood to carry oxygen and deliver it to the tissues, and blockage of important biochemical reactions in cells. People who have an existing disease which affects the delivery of oxygen to the heart or brain (eg coronary artery disease (angina)) are likely to be at particular risk if these delivery systems are further impaired by carbon monoxide. NITROGEN DIOXIDE Sources All combustion processes in air produce oxides of nitrogen. Nitrogen dioxide (NO2 ) and nitric oxide (NO) are both oxides of nitrogen and together are referred to as NOX . It is nitrogen dioxide which is associated with adverse effects upon human health. Road transport is thought to account for about 50% of total emissions of nitrogen oxides. Health effects At relatively high concentrations, nitrogen dioxide causes inflammation of the airways. There is evidence to show that long-term exposure to nitrogen dioxide may effect lung function and that exposure to nitrogen dioxide enhances the response to allergens in sensitised individuals. OZONE Sources Ozone is not emitted directly from any man-made source in any significant quantities. It arises from chemical reactions in the atmosphere caused by sunlight. In the stratosphere, where ozone plays a beneficial role by shielding the earth from harmful ultra-violet radiation, ozone is produced by sunlight acting initially on oxygen molecules. The balance between ozone and oxygen in the stratosphere is currently being disturbed by migration upwards of chemicals such as chlorofluorocarbons. They remove ozone and may therefore increase the amount of ultraviolet light reaching the earth’s surface. Some ozone occasionally reaches the lower layers of the atmosphere from intrusions of air from the stratosphere. But it is primarily formed by a complicated series of chemical reactions initiated by sunlight. Oxides of nitrogen and VOCs, derived mainly from man-made sources, react to form ozone. These substances are produced by 87 combustion, other industrial processes, and other activities such as solvent use, and petrol distribution and handling. NO X and VOCs are the most important precursors of elevated levels of ozone. Production can also be stimulated by carbon monoxide, methane, or other VOCs which arise from plants, trees and other natural sources. Ozone is also a greenhouse gas, so NO X and VOCs can also be considered indirect greenhouse gases. Health effects Exposure to high concentrations of ozone may cause slight irritation to the eyes and nose. If very high levels of exposure (1,000-2,000µg/m3 ) (500-1,000ppb) are experienced over several hours, damage to the airway lining followed by inflammatory reactions may occur. There is also evidence that minor changes in the airways may occur at lower concentrations, down to about 80ppb (160µg/m 3 ). Benzene Sources Benzene is a volatile organic compound. The main atmospheric source is the combustion and distribution of petrol, of which it is a minor constituent. Benzene is also formed during the combustion process from aromatics in the petrol. Diesel fuel is a relatively small source. Petrol-engined vehicle exhausts; Petrol refining and distribution; and Uncontrolled emissions from petrol station Forecourts without petrol vapour recovery systems. Health effects Benzene is a recognised genotoxic human carcinogen. Studies of industrial workers exposed in the past to high levels of benzene have demonstrated an excess risk of leukaemia which increased in relation to their working lifetime exposure. 1,3-BUTADIENE Sources 1,3-Butadiene is a gas at normal temperatures and pressures and trace amounts are present in the atmosphere, deriving mainly from the combustion of petrol and of other materials. Although 1,3butadiene is used in industry, mainly in the production of synthetic rubber for tyres, motor vehicles are its dominant source. Health effects The health effect which is of most concern in relation to 1,3-butadiene exposure is the induction of cancers of the lymphoid system and blood-forming tissues, lymphomas and leukaemias. Like benzene, 1,3-butadiene is a genotoxic carcinogen 88 Anions : Nitrate: Large amounts taken by mouth can have serious and even fatal effects. The symptoms are dizziness, abdominal cramps, vomiting, bloody diarrhea, weakness, convulsions and collapse. Small repeated doses may lead to weakness, general depression, headache and mental impairment. Also there is some implication of increased cancer incidents among those exposed. Sulphur in SO4: Poison to humans by inhalation. It is an eye, skin and mucous membrane irritant and corrosive, an experimental carcinogen. It chiefly affects the upper respiratory tract and the bronchi. It may cause edema of the lungs or glottis, and can produce respiratory paralysis. Heavy metals LEAD Sources Lead is the most widely used non-ferrous metal and has a large number of industrial applications, both in its elemental form and in alloys and compounds. The single largest use globally is in the manufacture of batteries. The use of unleaded petrol has led to significant reductions in urban lead levels. Food and water are two of the main sources for most people. Lead in air contributes to lead levels in food through the deposition of dust and rain, containing the metal, on crops and on the soil. Health effects Exposure to high levels of lead may result in toxic biochemical effects in humans which in turn cause problems in the synthesis of haemoglobin, effects on the kidneys, gastrointestinal tract, joints and reproductive system, and acute or chronic damage to the nervous system. The possible effect of lead on brain development in children, and hence their intellectual development, is the greatest cause for concern. Copper: Poison to humans by ingestion. Inhalation of copper dust and fume causes irritation in the respiratory tract. Absorption of excess copper results in "Wilson's disease" due to deposition of copper in the brain, skin, liver, pancreas and myocardium. Cadmium: Can be poisonous to humans by inhalation, ingestion, intraperitonial, sub-cutaneous, intra-muscular and intravenous routes. Cadmium absorption can damage the kidneys and can cause anaemia. It is a potential human carcinogen. Cadmium causes increased blood pressure and a disease called "Itai--Itai", which makes bones brittle resulting in multiple fractures. Magnesium: Poison by ingestion, inhalation of magnesium dust and fumes can cause metal fume fever. Particles embedded in the skin can produce gaseous blebs and a gas gangrene. 89 Manganese in the air has adverse effects on humans. Poisoning takes the form of progressive deterioration in the central nervous system. An experimental carcinogen and mutagen. Human toxicity caused by dust or fumes. The main symptoms of exposure are languor, sleepiness, weakness, emotional disturbances, spastic gait and paralysis. Zinc: Human skin irritant and effects pulmonary system. Pure zinc powder is non-toxic to humans by inhalation but difficulty arises from oxidation (burning), as it emits zinc fumes. Zinc is perhaps the least toxic of all heavy metals, in fact an essential element in animal and human nutrition, still they become toxic when absorbed in excess. Zinc stimulates the sensation of vomiting. An exposure to 150 mg of zinc can stimulate the process of vomiting in an adult male. 90 National Ambient Air Quality Standards for various pollutants prescribed with respect to zones Concentration in ambient air TimeResidential, Pollutants weighted Industrial Method of measurement Sensitive Rural & average Areas Areas other Areas Sulphur Dioxide Annual 80 µg/m3 60 µg/m3 15 µg/m3 - Improved West and Geake (SO2) Average* Method - Ultraviolet Fluorescence 24 120 µg/m3 80 µg/m3 30 µg/m3 hours** Oxides of Nitrogen Annual 80 µg/m3 60 µg/m3 15 µg/m3 - Jacob & Hochheiser Modified as Average* (Na-Arsenite) Method (NOx) 24 120 µg/m3 80 µg/m3 30 µg/m3 - Gas Phase Chemiluminescence hours** Suspended Annual 360 µg/m3 140 µg/m3 70 µg/m3 - High Volume Sampling, Particulate Matter Average* (Average flow rate not less than (SPM) 1.1 m3/minute). 3 3 3 24 500 µg/m 200 µg/m 100 µg/m hours** Respirable Annual 120 µg/m3 60 µg/m3 50 µg/m3 - Respirable particulate matter Particulate Matter Average* sampler (RPM) (size less 24 150 µg/m3 100 µg/m3 75 µg/m3 than 10 microns) hours** Lead (Pb) Annual 1.0 µg/m3 0.75 µg/m3 0.50 - ASS Method after sampling 3 Average* µg/m using EPM 2000 or equivalent Filter paper 3 3 24 1.5 µg/m 1.00 µg/m 0.75 . 3 hours** µg/m Ammonia1 Annual 0.1 mg/ m3 0.1 mg/ m3 0.1 mg/m3 . Average* 24 0.4 mg/ m3 0.4 mg/m3 0.4 mg/m3 . hours** Carbon Monoxide 8 hours** 5.0 mg/m3 2.0 mg/m3 1.0 mg/ - Non Dispersive Infra Red (CO) m3 (NDIR) 3 3 3 1 hour 10.0 mg/m 4.0 mg/m 2.0 mg/m Spectroscopy Annual Arithmetic mean of minimum 104 measurements in a year taken twice a * week 24 hourly at uniform interval. 24 hourly/8 hourly values should be met 98% of the time in a year. However, 2% ** of the time, it may exceed but not on two consecutive days. 91 The Noise Pollution (Regulation and Control) Rules, 2000 SCHEDULE (see rule 3(l) and 4(l) Ambient Air Quality Standards in respect of Noise Area code Category Area / Zone Limits in dB (A) Leq* Day time Night time 75 70 (A) Industries area (B) Commercial area 65 55 (C) Residential area 55 45 (D) Silence zone 50 40 Note 1. Day time shall mean from 6.00 a.m. to 10.00 p.m. 2. Night time shall mean from 10.00 p.m. to 6.00 a.m. 3. Silence zone is defined as an area comprising not less than 100 metres around hospitals, educational institutions and courts. The silence zones are zones, which are declared as such by the competent authority. 4. Mixed categories of areas may be declared as one of the four above-mentioned categories by the competent authority. *dB(A) Leq denotes the time weighted average of the level of sound in decibels on scale A which is relatable to human hearing. A "decibel" is a unit in which noise is measured. "A", in dB(A) Leq, denotes the frequency weighting in the measurement of noise and corresponds to frequency response characteristics of the human ear. Leq : It is an energy mean of the noise level, over a specified period. 92 Summary of the ambient air quality data of the stations monitored through out the state for the year 2007. S.No 1. 2. 3. 4. 5. 6. 7. 8. 9. 10. 11. 12. 13. 14. 15. 16. 17. 18. 19. 20. 21. 22. 23. 24. 25. 26. 27. 28. 29. 30. 31. 32. 33. Name of the Location Area Resi / Comm Standards Industrial standards Sensitive Standards Abids Res/Com Punjagutta Res/Com Paradise Res/Com Charminar Res/Com Zoo Park Sensitive KBRN Park Sensitive Balanagar Ind. Uppal Ind. Jubilee Hills Res MG Bus Station Res/Com Chikkadapally Res/Com Langarhouse Res/Com Jeedimetla Ind Nacharam Res/Com Madhapur Res/Com Kukatpally Res/Com Sainikpuri Res/Com Rajendranagar Res/Com Shameerpet Res/Com University of Hyd. Res/Com BPPA Res/Com Zonal office: R.C. Puram Mella cheruvu Res/Com Nalgonda Res/Com Ramapuram Res/Com Dondapadu Res/Com Subhash Nagar Res/Com Sanga Reddy town Res/Com Patancheru Ind ZO: Vijayawada Autonagar Ind Benz circle Res/Com Police control room Res/Com Guntur Municipal Corpn. Res/Com Vidyut Bhavan Res/Com Annual average for the year 2007 RSPM TSPM SO2 NOx 60 140 60 60 120 360 80 80 50 70 15 15 107 328 5.2 35 139 389 5.9 36.4 108 323 5.2 35.7 99 297 5.2 32 49 131 4.8 16.6 45 118 4.2 12.8 96 304 5.4 35.7 100 270 5.4 33.5 49 143 4.4 15.6 79 213 5.2 26 79 213 5.1 22.9 153 409 5.1 23.3 89 266 5.5 23.6 86 259 5.4 24 54 146 4.2 13.9 70 204 4.5 17.5 53 143 4.3 14.8 47 129 4.2 14.7 48 132 4.3 15.8 49 124 4.4 15.4 70 196 4.7 23.6 72 76 81 76 61 103 80 156 169 183 168 159 237 203 6 5.7 5.9 5.3 5 9.7 9.7 10.7 9.5 17.8 90 85 76 70 - 237 188 155 161 70 7.3 6.4 4.4 - 37.7 35.7 49.9 - 93 S.No 34. 35. 36. Name of the Location Prakasham Khammam Paloncha, IE ZO, Visakhapatnam 37. MCV Kalyana Mandapam 38. St. John Parish 39. St. Alloysius 40. Mindi 41. Police Barracks 42. Marripalem 43. Veerabahu 44. Seetammadhara 45. Gnanapuram 46. Vizianagaram 47. Srikakulam 48. Eluru 49. Kakinada ZO: Kurnool 50. Poola bazar 51. Industrial Estate Kallur Station 52. Krishna Nagar 53. Anantapur 54. Regional S. Centre (Tirumala Hills) 55. GNC Toll gate (Alipiri) 56. Nutrine Confectionary (Chittore) 57. Cuddapah ZO: Hyderabad 58. Godavarikhani 59. Balasamudram 60. Nakkalagutta All values are expressed in ug/M3 - data not received Area Res/Com Res/Com Ind Annual average for the year 2007 RSPM TSPM SO2 NOx 70 53 82 58 89 - Res/Com Res/Com Res/Com Res/Com Res/Com Ind Sen Res/Com Res/Com Res/Com Res/Com Res/Com Ind 89 96 91 97 103 91 77 89 90 74 75 81 51 178 194 187 196 207 183 157 180 182 157 149 181 110 8.4 8.6 8.4 8.6 8.7 8.3 8.2 8.5 10 - 33 33.5 33 30.9 31.1 30 29.9 30.2 32.2 - Res/Com Ind 61 66 122 129 - - Res/Com Res/Com Sen 82 74 26 159 152 91 4 16.9 4 9 Sen Res/Com 36 45 110 134 - - Res/Com 53 149 - - Res/Com Res/Com Res/Com 73 51 75 229 150 220 6 4.3 4.7 12.6 11.1 16.7 94 Comparison of annual averages of RSPM levels in Municipal Corporations 100 RSPM 2006 90 RSPM 2007 80 60 50 40 30 20 10 W ar an ga l Vi zia na ga ra m pa h Cu dd a ad Ni za m ab m am Kh am Ti ru pa th i Na lg on da ha pu r An an t Ku rn oo l Vi ja ya wa da Vi sa kh ap at na m 0 Hy de ra ba d Conc. in ug/m3 70 Corporations 95 pa h W ar an ga l Vi zi an ag ar am Cu dd a ad m am Ni za m ab Kh am Ti ru pa th i Na lg on da ha pu r An an t Ku rn oo l ad a Vi sa kh ap at na m Vi ja ya w Hy de ra ba d Conc. in ug/m3 Comparison of annual averages of TSPM levels in Municipal Corporations 300 TSPM 2006 250 TSPM 2007 200 150 100 50 0 Corporations 96