SOLID WASTE MANAGEMENT IN EGYPT



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Section 2: SOLID WASTE MANAGEMENT IN EGYPT 2.0 INTRODUCTION In order to put solid waste management in the Governorate of Dakahleya into a national perspective, this Section briefly describes solid waste management in Egypt in general. 2.1 GEOGRAPHICAL, HISTORICAL AND ECONOMICAL The inhabited part of Egypt is the 1,000km valley from Aswan to Alexandria, flanked by desert and with an estimated population now about 65 million. The natural divisions of Egypt are: Upper Egypt; the Delta; the Canal cities; the Mediterranean coast; the Western and Eastern Deserts; the Sinai; and the Red Sea coast. Although Egypt suffers from the global trend of increasing urbanisation, it is essentially an agricultural country. About half its people earn their living by growing crops such as cotton, sugarcane, rice, wheat, corn, beans, fruit and vegetables. The most important industries are textiles, food processing and building materials. New industries have appeared in the last two to three decades, including: chemicals, pharmaceuticals, leather products, soap, fertilisers and plastics. 2.2 THE ENVIRONMENT environmental degradation is not only well advanced already, but also is getting progressively worse as the countrys population, urbanisation and industrialisation increase, and as its economy develops generally. This concern has led to a growing recognition that economic development and the health and well-being of the countrys population are closely linked with improved environmental management and protection. 2.3 SOLID WASTES 2.3.1 Introduction Not least of Egypts problems are those created by and related to solid wastes, both hazardous and nonhazardous. Some measures were introduced in 1967 and in 1976 to regulate solid wastes, but no action was then taken regarding the regulation of hazardous wastes. However, steps are now being taken to move towards the introduction of remedial actions; there is now the first National Environmental Action Plan (Arab Republic of Egypt. Environmental Action Plan, Cairo, 1992), the Environmental Conservation Law No.4 (January 1994) and the strengthening of the Egyptian Environmental Affairs Agency (EEAA). March 1999 Section 2 1

2.3.2 Waste Generated and for Disposal - Urban and Rural Solid Waste Management Strategy for Dakahleya Governorate It is important to note the big differences in Egypt between solid waste generation (arisings) and the amounts reaching final disposal sites. In developed countries, the two figures are usually much the same since most waste arisings must be disposed of formally (although there are moves towards the segregation of some components of waste at the source in a number of countries). In developing countries, including Egypt, much more of the waste arising is recovered, not least by scavengers, before it reaches the point of final disposal. Indeed, many materials that are deemed worthless in developed countries are justifiably recovered from waste and then reused in developing countries. For any figures related to the quantification of wastes to have any meaning they must be interpreted with the foregoing in mind. Also, estimating the amount of waste produced by households and then finally lection and disposal systems statistics can be unreliable. The situation is made worse in Egypt as there are no weighing facilities at disposal sites and no tradition of waste sampling and analysis, except at composting plants. Furthermore, the types and quantities of wastes arising and reclaimed vary with the locality and, to some extent, with the season; and areas with more traditional lifestyles tend to generate relatively small quantities of waste, and segregation and reclamation practices are more widespread. Throughout this Report the best available data have been used, but since the data are sparse and there are some conflicts and anomalies in them, they have sometimes been interpreted in light of the consultants own local findings and experience. According to the National Environmental Action Plan (1992), 10 million tonnes of municipal solid waste arise annually in Egypt, of which 60% arises in urban areas. Industry generates 3-5 million tonnes/annum of solid waste of which around 50,000 tonnes are classified as being hazardous. As the population grows and affluence increases the quantity of solid waste also is increasing. This is a logical relationship and is in accord with experience internationally. In any country the amount of solid waste generated varies with the standard of living of its people. For Egypt it is estimated that the rate of waste generation ranges from 0.03kg per capita per day in truly rural areas to 0.8kg per capita per day in Cairo, but it can be as high as 1.5kg per capita per day for hotels and tourist resorts. This range is low but is typical of many developing countries. The amount of waste generated by different sources (e.g. households and commercial establishments) is necessary to define the number and capacity of waste storage and collection facilities required. Tables 2.1 and 2.2 show an estimated breakdown of waste generation rates for urban and rural areas in Egypt. Table 2.2 also shows the important difference between the amount of waste generated and the lesser amount that needs to be collected, particularly in rural areas. This reduction is due to the reclamation of reusable constituents in the waste. Interestingly, Table 2.2 shows that in urban areas there is no great difference between the amount generated and the amount that needs collection. It is demonstrated elsewhere in this Report that reclamation in one form or another is important in all areas of the country and it is surprising and anomalous that this is not reflected more in Table 2.2. March 1999 Section 2 2

Table 2.1: Urban Solid Waste Generation (1990) Area Criteria (inhabitantsx1 0 3 ) Inhabitants (M) Waste Generation (kg/cap.d) Waste (t/d) Large Cities (e.g. Cairo, Alexandria and > 500 11.77 0.8 9,416 Urban Giza) Medium Cities (Most Capitals of > 150-500 3.15 0.7 2,205 Remaining Governorates) Small Cities (Remaining Cities) > 150 6.03 0.6 3,617 Adjustment 3.80 0.7 2,660 Total (Cities) 24.75 17,898 Source: Arab Republic of Egypt, National Environmental Action Plan, Cairo, 1992 (An adjustment was made to reflect January 1995 population figures.) Table 2.2: Urban and Non-Urban Solid Waste Generation (1990) Location Population (million) kg/capita per day Waste Generation x10 3 tonnes/ day x10 3 tonnes/ day Reductio n (%) kg/capita per day Need for Collection x10 3 tonnes/ day x10 3 tonnes/ Urban 23.35 0.6-0.8 16.92 6,180 90 0.6-0.8 15.23 5,560 Peri-Urban 10.30 0.4 4.12 1,500 70 0.28 2.88 1,050 Rural 22.00 0.3 6.60 2,410 20 0.06 1.32 480 Total 55.65 27.64 10,090 19.43 7,090 Source: Project in Development and the Government. Comparing Environmental Health Risks in Cairo, V 2 c. 1994 day Some of the principal constituents of municipal solid waste and estimates of their individual contributions to the total mixed waste arisings are shown in Table 2.3. The data in Table 2.3 are from two different sources but are not in mutual conflict. The Table shows that about two-thirds of municipal waste arises from household sources. March 1999 Section 2 3

Table 2.3: Sources of Municipal Solid Waste (Estimated as a Percent of Total Waste) Source 1* Source 2** Household 68 64.3 Street Sweepings and Green Refuse 12 12.3 Commercial 11 14.9 Industrial 5 2.3 Institutions (including Hospitals) 4 Educational 0.9 Hotels 0.7 Hospitals 0.09 Other 4.15 Source 1: Arab Republic of Egypt, National Environmental Action Plan, Cairo, 1992 Source 2: Project in Developmand the Environment Comparing Health Risk in Cairo, V.2:C. 1994. food from households is fed to animals, animal and post-harvest waste is converted into fuel, and the excess is home-composted and used to condition the soil. (Biogas is recovered for use as a beneficial resource in a few pilot projects in Egypt.) The composition of waste generated in rural areas is particularly suited to such practices as it is mainly organic in nature. These traditional practices have been influenced by the developing prevalence of plastics, which began to appear in village solid waste when villagers gained more mobility and started shopping in neighbouring urban centres. In particular, plastic bags and worn plastic shoes started to appear as waste. Urbanised communities produce more non-organic waste and raise animals on a lesser scale than rural ones. Waste from animals is disposed of to street collection/transfer points or directly into the streets themselves. The waste from animals used for transport is usually, and inevitably, deposited directly to the street where it arises. Thus, two items, which do not appear in rural waste, start appearing in waste generated in urban areas: food from homes which no longer raise animals and animal waste from homes that continue to raise animals and street traffic (horse carts and hantour). 2.3.3 Waste Characteristics Waste characteristics vary according to the extent of urbanisation, the income level of the area, and the degree of its industrialisation and commercialisation. The density of solid waste arisings varies according to point of measurement (at source, during transportation, at disposal) but averages about 300 kg/m 3 in Egypt. This is significantly higher than solid waste densities found in developed countries, but is comparable to those found in other developing countries (see Table 2.4.). Waste density is another important measure used to define the number and capacity of waste storage and collection facilities required. Based on waste density and the capacity of trucks, the amount of waste collected can be measured in tonnes (weight). The relatively high density measured in Egypt reduces the effectiveness of compaction vehicles for waste transportation. March 1999 Section 2 4

Table 2.4: Solid Waste Densities Around the World Solid Waste Management Strategy for Dakahleya Governorate Country Density of Solid Waste (kg/m 3 ) Developed Countries United States 100 United Kingdom 150 Developing Countries Tunisia 175 Nigeria 250 Thailand 250 Indonesia 250 Egypt 300 Pakistan 500 India 500 Source: Arab Republic of Egypt, National Environmental Action Plan, Cairo, 1992 The National Environmental Action Plan defines five broad sectors generating solid waste: municipal waste from urban, peri-urban and rural areas; hazardous waste from hospitals; industrial non-hazardous waste; industrial hazardous waste; and agricultural waste. There are other sub-categories of solid waste that may sometimes be considered separately for reasons of local conditions and/or constraints. In the Egyptian context these include sewage screenings and dried sewage sludge (which are often dumped with municipal solid waste), market wastes (which can be of significant quantity in some urban areas), and dredgings from irrigation and drainage canals. Construction wastes are also of significance. Animal carcases also appear throughout the waste collection and disposal sequence. The composition of municipal waste depends to a large extent on the affluence of the population contributing to the waste stream. It is essential to know the composition of waste, both at the source and at disposal, to assess the most suitable option for disposal and recovery. For example, the feasibility of composting is determined by a combination of the quantities of waste generated and the proportion of organic waste, amongst other factors. An example of a typical composition of solid waste in Egyptian cities is shown in Table 2.5; typical data from the United States and Britain are shown in Table 2.6 for comparison. Table 2.5: Typical Composition of Solid Waste in Egyptian Cities Organic Waste 60 Paper 10 Plastic 12 Glass 3 Metals 2 Textiles 2 Other 11 Source: EEAA. Action Plan for Sanitary Landfills in Egypt, 1998. (%) March 1999 Section 2 5

Table 2.6: Solid Waste Constituents as a Percent of Weight Solid Waste Management Strategy for Dakahleya Governorate USA Britain Food 7 20 Yard Waste 18 4 Plastics 8 7 Glass 7 10 Metals 8 10 Miscellaneous 12 8 Other - 8 Source (USA): Thomas J. Cichonski and Karen Hill, Ed. Recycling Sourcebook, 1993. Source (UK): Newel, J. Recycling Britain. New Scientific, September 1990:46. It is clear from the preceding Tables that Egypts urban (municipal) solid waste differs considerably from that of cities in developed countries (which is to be expected). One reason for this is that there is a wide range from poverty to affluence in Egypts urban population; another is that much of the waste is reclaimed for recycling at various stages from arising to final disposal. The Tables 2.5 and 2.6 are of general relevance and interest; and they emphasise the importance of understanding the exact point in the sequence from arising to final disposal to which data refer. In developing countries the characteristics of waste change significantly during the arising-to-disposal sequence. Data reported for Egypt do not always make clear the point of sampling and are often, in consequence, easily open to misinterpretation. The quantity and organic content of solid waste are much less in rural areas where many waste materials are used traditionally and beneficially (e.g. for feeding animals, as soil conditioner, and as fuel for ovens). While rural areas comprise about 60 percent of the total population in Egypt, they only dispose of around 30 percent of the total amount of solid waste. Some peri-rural (suburban) areas follow much the same practices as truly rural areas, depending on their degree of urbanisation and their proximity to the adjacent rural area. Other peri-rural areas have adopted more urban life-styles. Animals are commonly kept even in these areas; but there may not be the historical outlets for the animal waste locally, so co-disposal with other more normal municipal waste is often practised. 2.3.4 Waste Collection It is reported in the National Environmental Action Plan (1992) that only some 68 percent of municipal waste is collected on average in Cairo; of this about half is collected by zabbaliin (garbage collectors). In effect, waste collection efficiencies range from 0 percent in low-income rural areas to 90 percent in high-income areas of large cities. The proportion of waste collected is much le ss in many other areas of the country, particularly in poorer areas, where the only means of solid waste disposal is often informal scavenging by people and animals, natural biodegradation and dispersion, burning at the primary point of disposal, and local self-help for disposal to informal (technically illegal) dumping sites. March 1999 Section 2 6

The responsibility of municipal solid waste management rests basically with the municipality. In Cairo, traditionally the zabbaliin (groups of people living from waste recycling, see Section 2.3.6) collect waste from households in middle to high-income areas and municipalities are in charge of street sweeping. Public waste collection, whenever it is carried out on its own, is usually not efficient; it operates at a loss and equipment is heavily subsidised. In addition, there are legal problems in terms of raising additional income from user fees. Because of this there is now a trend towards subcontracting a substantial part of waste collection and street sweeping services to new private companies, which have a higher efficiency. Subcontracting to private companies has mainly occurred with services in commercial areas, airports, hotels and in tourist towns. For these kind of services, as well as for the zabbaliin, fees are billed directly to the clients. 2.3.5 Treatment and Disposal Treatment and disposal technologies such as sanitary landfilling, composting and incineration are ratrecent in Egypt, having been introduced over the past two decades. Crude open dumping is the most common practice and dumpsites are commonly set alight to reduce the volume of accumulating waste, hence adding to the air pollution caused by the uncovered dumped waste itself. The practice of sanitary landfilling is still in its infancy in Egypt. However, controlled tipping has been successfully adopted in a number of cases. At present, there are no landfill regulations or standards that provide a basis for compliance and monitoring, but national guidelines for these standards are being prepared by the EEAA. By law (Law No. 4/1994), incineration has become the mandatory treatment for hospital and certain other hazardous wastes. However, the range of proper hazardous waste treatment and disposal facilities available in Egypt is extremely limited. Since the 1990s the Government of Egypt has clearly opted for a policy of waste recovery, focusing mainly on composting. Compost is considered an attractive product because of its possible use as a soil conditioner for desert reclamation schemes. The national policy comprises the construction of two windrow composting plants in each Governorate. However, most of the composting plants that have already been established do not operate efficiently nor at full capacity. Sales revenues usually hardly cover operating expenses, let alone depreciation costs. This is partly due to the expensive imported equipment used in the first five composting plants established in the 1980s. In the 1990s national research led to the local manufacturing of all equipment. The first composting plant using locally manufactured equipment was in Zagazig in Sharqiya Governorate, which began operations in 1995. Even with this plant, operational and marketing problems remain to be solved. Composting seems especially promising in the Delta where there is a lack of land for landfilling, where the waste quantities generated are relatively large and where the proportion of dust in the waste is rather low. Although the separation of waste at the source is highly needed for the success of many treatment and recycling systems, especially for composting, there have only been a few pilot projects in this area. March 1999 Section 2 7

2.3.6 The Private/Informal Sector In rural areas traditional practices continue to be followed today, but the nature of village waste has changed and peddlars (sarriiha) now collect new waste (principally plastics and worn shoes) on an informal basis throughout Egypt wherever the quantities available offer sufficient (if often very little) profit. As the country moved towards further urbanisation and industrialisation, new types of discarded material started to be used (reclaimed) in low-income urban areas. For example, scrap corrugated iron appeared as a roofing material, fences were built from discarded plumbing fixtures, tyres and vehicle exhaust pipes, and cardboard, tin and canvas were used to construct additional rooms on rooftops. Of Egypts cities, Cairo has potentially the greatest waste disposal problem. As the city has grown, traditional waste disposal practices have continu what is probably the most developed private sector of waste collection and reclamation. The current system evolved through interactive relationships between the waahi and the zabbaliin. The waahis initial motivation for collecting waste was the sale of recyclable paper, while the more general waste collectors were Nile Valley people who became the zabbaliin. With no more land available for farming, the zabbaliin resorted to raising animals in the city, where the only source of fodder available was waste. To feed their animals (pigs and goats are the animals most able to survive in an urban environment), the zabbaliins waste collection activity expanded to include not just paper, but also organic waste from high-income areas for use as pig-feed. By 1983 there were four zabbaliin garbage villages around Cairo. The zabbaliin have since expanded their activities and now take the waste they collect back to their garbage villages where it is sorted into recyclable components: paper, plastics, rags, glass, metal and food. The food waste is fed to pigs and the other items are sold to recycling centres. In 1986 a micro-enterprise scheme was initiated in Mokattam (the largest garbage village) through a local NGO. The scheme involved introducing locally-made plastic crushers and cloth grinders. This tended gradually to change the zabbaliins role; they had previously acted more as sorters than recyclers. The scheme eventually involved the development of techniques to reclaim plastics, cloth, paper, aluminium and tin. As a result, many of the original pig breeders found a new role in the micro-enterprise sector and sold their pigs to become recyclers. By 1990 the Cairo and Giza Governorates forbade waste collection in donkey carts and formalised the subcontracting of door-to-door waste collection. As a result, many zabbaliin formed co-operatives to be able to buy pick-up trucks to continue their waste collection services. As an aside, the pig waste attracted the attention of a group of supportive scientists, who developed a simple composting plant, which now produces what is reported to be one of the highest-grade composts in Egypt. Waste segregation and separation practices are evident throughout Egypt. A simple illustration of a typical provincial urban system (Ismailia) is shown in Figure 2.1. March 1999 Section 2 8

Figure 2.1: Flow of Secondary Materials in the City of Ismailia Solid Waste Management Strategy for Dakahleya Governorate Source of Material Collector Disposal Secondary Material from Households, Commercial Establishments & Institutions Dealers Secondary Material from Streets & Dustbins Peddlers Wholesaler Recycling Industry (Outside Ismailia City) Secondary Material from The Public Dump Site Scavengers Source: EQI, Solid Waste Management in the City of Ismailia, Egypt, 1994. 2.4 Conclusion The activities of the zabbaliin and, to a lesser extent, of the waahi in Cairo have been described here because they illustrate well the sort of practices taking place throughout the country as present. The extent of this successful, albeit hazardous, reclamation of materials from waste is taken note of in the development of the waste management strategy for Dakahleya. March 1999 Section 2 9