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PubMed2006

[Waste management in the Republic of Croatia--current status].

Waste management is one of the key ecological challenges of the modern world. Waste is a direct consequence of human activity and the quantity of generated waste is often an indicator of the economic strength and development of a community. This paper presents the figures indicating quantities of waste generated in the E.U. countries and Croatia. The framework of the waste management system is determined by law, governing bodies and institutions. In Croatia, the governing bodies include the parliament, relevant ministries, county and town administration, and local offices for environmental protection, all within their authorities and responsibilities. Current waste management in Croatia is characterised by the lack of accurate information about the quantity of waste produced, who produces what type of waste in what quantities, how it is further treated and disposed; then by inadequate treatment of waste, by the lack of adequate facilities within waste management system (treatment, disposal); by difficulties in finding appropriate location for disposal sites (difficulties in obtaining approvals by local communities and permits by relevant authorities). Only recently a database of dumps has been established. The regulatory framework is relatively good in Croatia, and in spite of problems, there is a growing activity and interest in waste management.

Croatia↗
PubMed2002

Life cycle inventory for municipal solid waste management.

Evaluating the environmental performance of municipal solid waste management options is a complex task. Part 1 of this study presents the municipal solid waste management program of the Pamplona Region in Spain, exploring the institutional, operational and economic factors of the program. In Part 2, alternative waste management scenarios that include the selective collection of organic material and composting are illustrated. The use of a Life Cycle Inventory model for waste management allows for the comparison of the environmental burdens of the different scenarios. This use of a Life Cycle Inventory model for solid waste management lets program managers and decision makers include energy use, final solid waste, and Greenhouse gas emissions in the decision making process. Additionally, the different management scenarios are evaluated on their ability to fulfil Pamplona regional objectives and meet European Packaging and Landfill Directive targets.

Cities↗
PubMed2005

Infectious waste management in Japan: a revised regulation and a management process in medical institutions.

In Japan, the waste management practice is carried out in accordance with the Waste Disposal Law of 1970. The first rule of infectious waste management was regulated in 1992, and infectious wastes are defined as the waste materials generated in medical institutions as a result of medical care or research which contain pathogens that have the potential to transmit infectious diseases. Revised criteria for infectious waste management were promulgated by the Ministry of Environment in 2004. Infectious waste materials are divided into three categories: the form of waste; the place of waste generation; the kind of infectious diseases. A reduction of infectious waste is expected. We introduce a summary of the revised regulation of infectious waste management in this article.

Guidelines as Topic↗
PubMed2005

Life cycle assessment of municipal solid waste management methods: Ankara case study.

Different solid waste management system scenarios were developed and compared for the Municipal Solid Waste Management System of Ankara by using the life cycle assessment (LCA) methodology. The solid waste management methods considered in the scenarios were collection and transportation of wastes, source reduction, Material Recovery Facility (MRF)/Transfer Stations (TS), incineration, anaerobic digestion and landfilling. The goal of the study was to determine the most environmentally friendly option of MSWM system for Ankara. The functional unit of the study was the amount of solid waste generated in the system area of concern, which are the districts of Ankara. The life cycle inventory analysis was carried out by IWM Model-1. The inputs and outputs of each management stage were defined and the inventory emissions calculated by the model were classified in to impact categories; non-renewable energy sources exhausting potential, final solid waste as hazardous and non-hazardous, global warming, acidification, eutrophication and human toxicity. The impacts were quantified with the weighing factors of each category to develop the environmental profiles of each scenario. In most of the categories, Source Reduction Scenario was found to be the most feasible management method, except the global warming category. The lowest contribution to GWP was calculated for the anaerobic digestion process. In the interpretation and improvement assessment stage, the results were further evaluated and recommendations were made to improve the current solid waste management system of Ankara.

Costs and Cost Analysis↗
PubMed2004

A historical context of municipal solid waste management in the United States.

Municipal solid waste management (MSWM) in the United States is a system comprised of regulatory, administrative, market, technology, and social subcomponents, and can only be understood in the context of its historical evolution. American cities lacked organized public works for street cleaning, refuse collection, water treatment, and human waste removal until the early 1800s. Recurrent epidemics forced efforts to improve public health and the environment. The belief in anticontagionism led to the construction of water treatment and sewerage works during the nineteenth century, by sanitary engineers working for regional public health authorities. This infrastructure was capital intensive and required regional institutions to finance and administer it. By the time attention turned to solid waste management in the 1880s, funding was not available for a regional infrastructure. Thus, solid waste management was established as a local responsibility, centred on nearby municipal dumps. George Waring of New York City organized solid waste management around engineering unit operations; including street sweeping, refuse collection, transportation, resource recovery and disposal. This approach was adopted nationwide, and was managed by City Departments of Sanitation. Innovations such as the introduction of trucks, motorized street sweepers, incineration, and sanitary landfill were developed in the following decades. The Resource Conservation and Recovery Act of 1976 (RCRA), is the defining legislation for MSWM practice in America today. It forced the closure of open dumps nationwide, and required regional planning for MSWM. The closure of municipal dumps caused a 'garbage crisis' in the late 1980s and early 1990s. Private companies assumed an expanded role in MSWM through regional facilities that required the transportation of MSW across state lines. These transboundary movements of MSW created the issue of flow control, in which the US Supreme Court affirmed the protection of garbage under the Commerce Clause of the Constitution. Thus MSWM in America today is largely managed by municipalities, and operated by a relatively small number of private companies. It consists of a mixture of landfill, incineration, recycling, and composting, and is regulated under RCRA, the Clean Air Act and other related federal and state laws.

Cities↗
PubMed2006

[Waste management strategy and the role of the environmental protection and energy efficiency fund].

On 14 October 2005, the Croatian Parliament adopted the National Strategy of Waste Management pursuant to Article 8 of the Waste Act. This strategy defines its objectives and the means to reach them, and gives an overview of the current situation in waste management. It seeks to provide a realistic framework for the effective reduction of national waste load and for a sustainable waste management. This Strategy defines 15 major waste flows which are in concordance with the EU practice. It also defines waste management buildings and plants, and looks into the remediation of municipal waste landfills. According to the Strategy, waste management will be present on all levels of administration: from national to local, and will include all areas of production, consumption, and everyday life. Founded on the EU's general principles of waste management, this Strategy provides the ideal framework for a sustained waste management in Croatia by the year 2025. Environmental Protection and Energy Efficiency Fund is one of the key administration bodies within the waste management system. It collects taxes for motor vehicles, for sulphur and nitrogen oxide pollution sources, for environmental hazardous and non-hazardous industrial waste load, and for the use of the environment. The Fund participates in the ongoing municipal landfill remediation projects and programmes all over Croatia (currently 161 landfills are being remedied) and helps to establish new regional and county waste management centres. It co-finances clean production technology projects, projects whose aim is to reduce the emission of harmful gases, projects for reusable energy sources and for more efficient use of energy, projects for remediation of unregulated municipal landfills, projects for primary recycling, and projects for biodiversity landscapes. According to an estimate, the implementation of the National Strategy of Waste Management will cost over 24 billion Croatian kunas (about 3.3 billion Euros). Beside national and local revenues, the Fund will play a key role in carrying this burden.

Croatia↗
PubMed2002

Liquid waste management strategies for coastal areas.

Liquid waste management in coastal areas is a challenging issue, because recipe solutions applied so far have not met the expectations fully. Therefore decision-makers, planners, engineers as well as the inhabitants of these places are looking for a better approach that will adequately handle the problem and perform reliable solutions. It is the aim of this paper to review the recent situation of liquid waste management for coastal areas in general, and discuss it from the point of view of Turkey in particular. A simple and applicable waste management strategy is also proposed in the paper and its merits are illustrated in a case study. Finally, anticipating the wide applications of such systems in coastal establishments, some recommendations are forwarded.

Humans↗
PubMed2005

Solid waste management techniques for the waste generated and brought down from campsites in the hill spots, trails and expedition tops.

The increasing self-generated solid waste from the visitors in the hill towns, trails and expedition tops is one of the most adverse forms of human impacts in mountain environments. The direct managing authorities, such as municipalities in the hill spots, have no proper places to dispose of municipal waste nor the other infrastructure required nor adequate funds. The trekking and expedition areas are entirely dependent on the moral responsibilities of the local people, as well as visitors, because these locations are in remote areas, outside municipal boundaries. Based on five major case studies representing the Himalayas, the status of solid waste generation, its physical composition and management options in tourist [Kullu: 1,219 metres above average sea level (m), Rewalsar: 1,300 m, Manali: 2,050 m], trekking (in and around the Valley of Flowers: 1,830-4,330 m) and expedition areas (Pindari valley: 2,300-5,500 m) were studied. The inflow of visitors ranged from 150,000 to 1,140,251 in the hill spots, and from 25,000 to 116,392 in the expedition and trekking areas, respectively. The capita = t day 1 waste generation varied from 200-300 g in hill spots and from 200-288 g in expedition and trekking areas, respectively. Biodegradable waste varied from 65.2 to 83.1% of the total waste generated and was of greater quantity than non-biodegradable waste in expedition areas. Non-biodegradable waste was the predominant form in the expedition (66.4%) and trekking areas (84.5%). The ultimate aim of the study is to make the concerned local people, visitors and government aware of the need to harness energy from waste. This can be done in various ways including biocomposting, and the reuse and recycling of waste otherwise considered valueless and useless.

Altitude↗
PubMed1982

Hazardous waste management system standards for owners and operators of hazardous waste treatment, storage, and disposal facilities and EPA administered permit programs; hazardous waste permit program. Environmental Protection Agency. Interim final amendments to rule.

On May 19, 1980, EPA promulgated regulations applicable to owners and operators of hazardous waste treatment, storage, and disposal facilities which prohibited the landfill disposal of most containerized liquid waste or waste containing free liquid on and after November 19, 1981. Further on June 29, 1981, EPA amended its hazardous waste management regulations so as to extend the compliance date of the restriction on the landfill disposal of containerized liquid ignitable wastes to coincide with the compliance data of the general restriction on landfill disposal of liquids. The Agency is today extending the compliance date on both these requirements until May 26, 1982, and, in a separate action, is proposing amendments to these restrictions. This extension of compliance dates is provided for the sole purpose of allowing time to complete the rulemaking action on today's proposed amendments. The Agency is also today exempting from the requirements of the hazardous waste management regulations, the acts of adding absorbent material to hazardous waste in containers and adding hazardous waste to absorbent material in a container, at the time waste is first placed in the container, in order to reduce the free liquids in a container.

Refuse Disposal↗
PubMed2001

Instruments for sustainable solid waste management in Botswana.

Sustainable solid waste management is a strategy for achieving environmental quality in both the developed and the developing world. Environmental quality is a necessary condition for an increase in per capita welfare over time. The paper suggests alternative instruments for solid waste reduction, re-use and recycling. But to be able to apply the suggested economic instruments, the quantities and composition of the waste must be known. Having identified the current instruments of Botswana's solid waste management (regulatory measures, environmental education, and economic instruments of property rates, service levy, and sanitation fees), the paper argues that these do not go far enough in enhancing environmental protection. Alternative instruments such as solid waste collection and disposal levies, deposit refund schemes, and product levies are suggested. It is also suggested that public environmental education and regulatory measures should be strengthened.

Botswana↗
PubMed2002

Life cycle inventory for municipal solid waste management. Part 2: MSW management scenarios and modeling.

Evaluating the environmental performance of municipal solid waste management options is a complex task. Part 1 of this study presents the municipal solid waste management program of the Pamplona Region in Spain and explores the operational, economic, and environmental factors of the program. In Part 2, alternative waste management scenarios that include the selective collection of organic material and composting are illustrated. The use of a Life Cycle Inventory model for waste management allows for the comparison of the environmental burdens of the different scenarios. This use of a Life Cycle Inventory model for solid waste management lets program managers and decision makers include energy use, final solid waste, and Greenhouse gas emissions in the decision making process. Additionally, the different management scenarios are evaluated on their ability to fulfil Pamplona regional objectives and meet European Packaging and Landfill Directive targets.

Cities↗
PubMed1999

Citizen Involvement in Waste Management: An Application of The STOPER Model via an Informed Consensus Approach.

/ Waste management planning and implementation is not only a technological issue, but a social and political one as well. In this paper, we discuss a proposal to rethink certain aspects about waste management planning and implementation. Specifically, we present a framework whereby the ordinary citizen can proactively and constructively participate in the decision-making process. After briefly discussing the STOPER research team and certain limits inherent in current waste-management practices, we propose a mode of consultation known as the informed consensus approach. We assert that this approach incorporates social perceptions of key intervenors such as experts, decision makers, interest groups, and ordinary citizens and that this can enrich the decision-making process concerning complex environmental issues such as waste management. We focus our presentation on the results of the application of an informed consensus approach to waste management strategies in the municipality of Sherbrooke (Québec, Canada). KEY WORDS: Informed consensus; Public participation; Decision-making process; Social acceptability; Waste management

Journal Article↗
PubMedDate not supplied

Occupational health and safety in household hazardous waste management facilities.

Employees in household hazardous waste management facilities encounter a variety of potentially hazardous exposures. The purpose of this study was to evaluate both chemical and physical hazards at a representative group of household hazardous waste management facilities in Minnesota. Sampling results suggest that chemical exposures are generally not a problem when chemical bulking is performed outside the facility. For facilities operating year-round, however, proper ventilation is necessary to ensure adequate control of chemical exposures when bulking is done inside the building. The most significant chemical exposures occurred when handling paint (benzene) and broken fluorescent light bulbs (mercury). Guidelines for appropriate personal protective equipment and handling of broken fluorescent light bulbs were developed as a result of this study. Materials handling was the most significant physical hazard, resulting in wrist, elbow, and back injuries. The suspected reasons for these injuries (awkward postures and repetitive motions) were noted throughout the management process and should be further investigated.

Aerosols↗
PubMed2006

The use of chemical composition data in waste management planning--a case study.

As the waste industry continues to move from a disposal-based system to one based on a combination of recovery options, the need for information on the composition of waste increases and this is reflected by the amount of information on the physical composition of municipal solid wastes that is now available. However, there is far less information on the chemical composition of municipal solid waste. The results from a number of chemical surveys from Europe are compared and show a reasonable degree of agreement, but several problems were identified with the data. Chemical and physical compositional data are combined in a case study example to investigate the flow of key potential pollutants in an integrated solid waste management system that uses materials recycling, composting, incineration and landfilling. This case study has shown that an integrated waste management strategy diverts lead and cadmium away from composting and recycling to incineration, which effectively isolates these elements from the environment through efficient capture of the pollutants followed by secure landfilling or recycling of the residues. However, further work is needed to determine the distribution of mercury in incineration residues and its fate when the residues are landfilled.

Austria↗
PubMed2006

Hospital waste management and toxicity evaluation: a case study.

Hospital waste management is an imperative environmental and public safety issue, due to the waste's infectious and hazardous character. This paper examines the existing waste strategy of a typical hospital in Greece with a bed capacity of 400-600. The segregation, collection, packaging, storage, transportation and disposal of waste were monitored and the observed problematic areas documented. The concentrations of BOD, COD and heavy metals were measured in the wastewater the hospital generated. The wastewater's toxicity was also investigated. During the study, omissions and negligence were observed at every stage of the waste management system, particularly with regard to the treatment of infectious waste. Inappropriate collection and transportation procedures for infectious waste, which jeopardized the safety of staff and patients, were recorded. However, inappropriate segregation practices were the dominant problem, which led to increased quantities of generated infectious waste and hence higher costs for their disposal. Infectious waste production was estimated using two different methods: one by weighing the incinerated waste (880 kg day(-1)) and the other by estimating the number of waste bags produced each day (650 kg day(-1)). Furthermore, measurements of the EC(50) parameter in wastewater samples revealed an increased toxicity in all samples. In addition, hazardous organic compounds were detected in wastewater samples using a gas chromatograph/mass spectrograph. Proposals recommending the application of a comprehensive hospital waste management system are presented that will ensure that any potential risks hospital wastes pose to public health and to the environment are minimized.

Aliivibrio fischeri↗
PubMed1997

Infectious waste management and laboratory design criteria.

Infectious waste management and laboratory design criteria are provided to help in recognizing what information needs to be included in an individual program and to develop an infectious waste management plan. Relevant engineering aspects of a containment laboratory are described in detail, and suggested equipment and operating procedures for collection, sterilization, and disposal of solid and liquid waste are discussed. The need for public awareness regarding infectious waste is discussed, including liability considerations associated with improper disposal. This study shows how proper management of infectious waste results in lower disposal cost, lower operating costs, reduction in liabilities, increased worker safety, and a cleaner environment.

Containment of Biohazards↗
PubMed2002

Waste management options in southern Europe using field and experimental data.

The applicability of the Waste Management Hierarchy concept that appeared to be an essential element in current national environmental policies was investigated in the case of a region in Southern Europe. The waste generation profile that determines the appropriateness of different waste management options was created after a 1-year municipal waste sampling investigation conducted in the Municipality of Pilea in Northern Greece. The paper describes the results of (1) the sampling method, which was conducted four times during 1 year (once per season) in selected areas of the city, (2) the qualitative analysis of the collected samples and (3) the waste treatment, which consisted of drying, grinding, calorific value measurement, incineration and chemical analysis of the collected samples. Comparative analysis between the above mentioned data and on past data derived from investigations conducted in other Greek regions with similar characteristics to those of Pilea were used to identify and discuss future trends in the composition of generated waste over time. An analysis of the current waste management status in Greece as well as the feasibility of implementing a comprehensive management approach is assessed taking into account guidelines set worldwide to promote renewable energy sources use. It is concluded that recycling, perhaps the most positively received of all waste management practices, is going to be an essential part of contemporary waste management strategies, composting can play an important role, while incineration seems to be a conditionally feasible solution.

Conservation of Natural Resources↗
PubMed2003

Effective medical waste management: it can be done.

BACKGROUND: It was noticed that a large volume of medical waste was being generated for incineration at our hospital. The 2 incinerators at our facility were unable to effectively deal with the load of waste and, therefore, were operating for extended periods of time. This caused a significant amount of soot and other emissions to be produced as pollutants into the surrounding environment, which is considered to be a real health hazard. METHODS: A waste-management plan was introduced that included education, mandatory inservice training, auditing of the type and volume of waste generated by each department, and introduction of a written policy on waste management. RESULTS: Within a few months of implementation of the waste-management plan, the amount of medical waste was reduced by more than 58%, from 609 skips/mo (2000 kg/day) in the year 1999, to 256 skips/mo (850 kg/day) in the year 2000; skips are steel containers filled with infectious waste. This reduction was maintained throughout the year 2001 and lead to a 50% reduction in total financial costs (17,936 US dollars) with savings in fuel of 5262 US dollars, labor-cost savings of 8990 US dollars, and maintenance and spare parts savings of 3680 US dollars. CONCLUSIONS: This article discusses problems encountered in waste management in our health care facility, solutions and control measures introduced, and achievements. It also demonstrates that effective waste management can reduce health risk, save money, and protect the environment.

Hospitals↗