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Frontiers of Environmental Science & Engineering

ISSN 2095-2201

ISSN 2095-221X(Online)

CN 10-1013/X

Postal Subscription Code 80-973

2018 Impact Factor: 3.883

Front. Environ. Sci. Eng.    2021, Vol. 15 Issue (6) : 115    https://doi.org/10.1007/s11783-021-1407-5
RESEARCH ARTICLE
Repercussions of COVID-19 pandemic on solid waste generation and management strategies
Yangyang Liang1,3, Qingbin Song2(), Naiqi Wu1(), Jinhui Li3, Yuan Zhong2, Wenlei Zeng2
1. Macao Institute of Systems Engineering, Macao University of Science and Technology, Macao 999078, China
2. Macao Environmental Research Institute, Macao University of Science and Technology, Macao 999078, China
3. State Key Joint Laboratory of Environment Simulation and Pollution Control, School of Environment, Tsinghua University, Beijing 100084, China
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Abstract

• Implication of COVID-19 on medical waste and MSW generation is studied.

• Challenges and effective strategy of solid waste generation is reviewed.

• 2.9 million tons of COVID-19 related medical waste has been generated until Sep. 22.

• The pandemic has postponed policies related to the reduction of plastic use.

• Blockade resulted in a significant drop in waste generation in some regions.

It has been over ten months since the beginning of the 2019 coronavirus disease (COVID-2019), and its impact on solid waste management, especially medical waste, is becoming clearer. This study systematically reviews the potential influences of the COVID-19 pandemic on medical waste, personal protection equipment waste and municipal solid waste (MSW), and discusses the corresponding measures and policies of solid waste management in typical countries. The results show that the generation of medical waste from the pandemic increased significantly, with 18%‒425% growth. It is estimated that the daily output of COVID-19 medical waste increased from 200 t/d on Feb. 22 to over 29000 t/d at the end of September 2020 throughout the world. The use of personal protective equipment will continue to grow in the long-term, while the blockade and isolation measures greatly reduced the volume of commercial waste, especially for tourist cities, and part of this waste was transferred to household waste. Residents’ attitudes and behavior toward food waste have changed due to the COVID-19 pandemic. In response to the pandemic, international organizations and several countries have issued new policies and guidelines and adjusted their management strategies for medical waste and MSW treatment. The pandemic has brought specific challenges to the disposal capacity of medical waste worldwide. It has also brought about the stagnation of policies related to the reduction of plastic products and waste recycling. This study will provide some useful information for managers and governmental officials on effective solid waste management during and after the COVID-19 pandemic.

Keywords COVID-19      Medical waste      Personal protective equipment      Municipal solid waste      Waste management     
Corresponding Author(s): Qingbin Song,Naiqi Wu   
Issue Date: 05 March 2021
 Cite this article:   
Yangyang Liang,Qingbin Song,Naiqi Wu, et al. Repercussions of COVID-19 pandemic on solid waste generation and management strategies[J]. Front. Environ. Sci. Eng., 2021, 15(6): 115.
 URL:  
https://academic.hep.com.cn/fese/EN/10.1007/s11783-021-1407-5
https://academic.hep.com.cn/fese/EN/Y2021/V15/I6/115
Content of the study Scope References
Waste management, air quality improvements, waste incineration, wildlife, global migration, and sustainability. Worldwide Rupani et al., 2020
Ocean environment, air and water quality Worldwide Saadat et al., 2020
NO2 and PM2.5, cleanliness of beaches, environmental noise level, waste generation, and waste recycling Worldwide Zambrano-Monserrate et al., 2020
Waste and wastewater Worldwide Nghiem et al., 2020
Implications of COVID-19 on plastic waste generation Worldwide Vanapalli et al., 2021
Plastic pollution due to COVID-19 pandemic Worldwide Patrício Silva et al., 2021
Plastic waste management Worldwide Patrício Silva et al., 2020
Medical waste administration India Ramteke and Sahu, 2020
Emergency response to health care wastes China Yang et al., 2021
Management of used personal protective equipment and wastes South Korea Rhee, 2020
Re-use and sustainable waste management of PPE The Republic of Ireland Rowan and Laffey, 2020
Food waste management Spain Aldaco et al., 2020
Consumer awareness, attitudes, and behaviors related to food wastage Tunisia Jribi et al., 2020
MSW management Italy Ragazzi et al., 2020
Covid-19 effects on MSW management Brazil Penteado and Castro, 2021
MSW management practices Worldwide Kulkarni and Anantharama, 2020
MSW from household, business, and industrial waste Singapore, China, and Czech Republic Fan et al., 2021
Medical waste, plastic waste, and food waste management Worldwide Sharma et al., 2020
Tab.1  A review on the environmental effects of the COVID-2019 pandemic
Date The central city China
Active cases Total cases Medical waste generation (t) Collected medical waste (t) COVID-19-related medical waste (t) Accumulation from Jan 21(thousand tons)
2.11 ? 19558 47 2661 489 ?
2.24 34691 47071 201 2719 588 99
3.1 25903 49315 247 ? ? ?
3.3 22368 49540 210 3136 570 123
3.14 9911 49999 210 3300 458 15.9
3.21 5143 50005 178 3475 380 182
3.28 2045 50006 173 3591 404 207
4.4 644 50008 109 3413 342 232
4.11 302 50008 122 3481 237 256
4.18 109 50333 99 3471 205 280
4.25 12 50333 68 3447 186 304
5.9 0 50334 55 3400 ? 349
5.16 6 50339 54 3461 ? 374
5.23 7 50340 65 3475 ? 398
5.30 4 50340 ? 3560 ? 422
6.8 0 50340 ? 3499 ? 447
Tab.2  Medical waste generation in China
City or Country Medical waste generation Cumulative cases in the research period Source
South Korea By mid-July, it increased to over 2600 t 27 cases on Feb. 10 to 13551 cases on Jul. 15. MoE Korea, 2020
Catalonia, Spain 1200 t (350% increase), from mid-March to mid-April 6475 cases on Mar. 15 to 142915 cases on Apr. 15 (Spain) ACR, 2020
Tehran, Iran 80–110 t per day during the pandemic (18%–62% increase) 54 cases on Mar. 1 to
2750 cases on Mar. 30 (Iran)
Zand and Heir, 2020
Ahmedabad, India 1000 kg/d (67%–82% increase).
3000 kg/d in the future
TOI, 2020
Tab.3  Medical waste generation in some regions
Fig.1  Estimation of COVID-19-related medical waste generation around the world. A. Medical waste generation on different dates; B. Medical waste generation in different countries on Sep 30, 2020 (any country with daily medical waste over 100 t).
Region Estimated data Condition Reference
The Republic of Ireland 9 million masks/week Used by health workers Farsaci, 2020
Africa 700 million masks/day 80% acceptance rate and an average of 2 face masks daily per capita Nzediegwu and Chang, 2020
Tehran, Iran 5.5 million masks/day 32% of the residents of Tehran agreed to use PPE Zand and Heir, 2020
Italy 40 million masks/day Two-thirds of the whole population are wearing masks Ragazzi et al., 2020
Tab.4  Estimation of number of masks used in some studies
Country or city Generation Source
Macao, China From February to May, the MSW generation decreased by 17%?25%, compared to 2019 Environmental Protection Bureau (DSPA) Macao SAR, 2020
Khenifra and Tighassaline, Morocco February and March 2020, compared to the same period of 2019, the MSW generation has decreased 2%?10% Ouhsine O, 2020
Catalonia, Spain MSW generation has fallen to an estimated 242000 t, 17% Generalitat de Catalunya, 2020
Milan, Italy 27.5% reduction in total waste production AMSA, 2020
Trento, Italy 4058 t, 14% lower than March 2019 Ragazzi et al., 2020
India The amount of MSW reaching landfills/junkyards decreased by about 20%?40% Somani et al., 2020
New York, US Residential solid waste generation increased from 5 to 30% WasteAdvantage, 2020
Commercial and industrial sector waste decreased by as much as 50%
Tokyo, Japan After Japan declared a state of emergency on 7 April 2020, the commercial waste amount decreased by 57% in May UNEP, 2020c
The household waste amount increased by 110% in May
England May 2020, 58% reported increases to be in the range of 0%?20% greater than normal ADEPT, 2020
Tehran, Iran Landfilling of wastes in Tehran has increased by 34.7% Zand and Heir, 2020
Tab.5  MSW generation in different regions
Guidelines and policies Institution or country Main content
• Water, sanitation, hygiene, and waste management for the COVID-19 virus: interim guidance
• Water, sanitation, hygiene and waste management for COVID-19: technical brief
WHO WHO’s guidance on virus-related water supply, sanitation, personal hygiene, and waste management for various types of viruses, including coronavirus.
• Waste Management during the COVID-19 Pandemic: from response to recovery. UNEP Practical information, suggestions, and guidelines on Medical Waste Management and Municipal Solid Waste Management
• Factsheet on Environmentally Sound Management of Medical Waste Basel Convention Supports the implementation of the environmentally sound management of hazardous wastes and other wastes.
• Waste Management During the COVID-19 Pandemic ISWA Recommendations on three priorities for waste management
• Infection prevention and control in the household management of people with suspected or confirmed coronavirus disease (COVID-19) ECDC Management of household waste
• Waste management in the context of the coronavirus crisis EC Provides guidance on preventing and reducing disruptions in the provision of proper waste management services.
• Guide on Management and Techniques of Emergency Treatment and Disposal of Medical Waste Caused by COVID-19 (Trial).
• Notice on the Management of Medical Waste in Medical Institutions for COVID-19
• Work Plan for Comprehensive Waste Management in Medical Institutions
China Management and technical guidelines on emergency treatment of medical waste for institutions
• Coronavirus (COVID-19): disposing of waste
• COVID-19 waste management standard operating procedure
• Cleansing and PPE waste at a healthcare waste management facility: RPS C1
• PPE waste from home healthcare workers treating patients with COVID-19: RPS C5
UK Waste management approach for all healthcare facilities; How to dispose of personal or business waste, including face coverings and PPE
• Extraordinary measures for Safety Management of Wastes Related to COVID-19
• Guidelines for waste treatment in residential treatment centers
South Korea Provides detailed management processes for medical waste from different sources
• Guidelines for Handling, Treatment, and Disposal of Waste Generated during Treatment/Diagnosis/Quarantine of COVID-19 Patients India Provides guidance on segregation of general solid waste and biomedical waste and recommead on disposal of PPEs
• Guidelines for the novel coronavirus infectious wastes Japan Types and characteristics of COVID-19 waste; messages when dealing with medical waste
Tab.6  The responding policies and guidance plans to the COVID-19 pandemic
Fig.2  Emergency disposal process and technical points in China.
Fig.3  Medical waste management system in South Korea (extract and organize from ESCAP, 2020).
Technologies Specific technologies Characteristics Waste volume Costs Maintenance
Chemical disinfection Sodium hypochlorite, calcium hypochlorite, chlorine dioxide Broad sterilization spectrum, rapid and stable performance; Residual disinfectants after disinfection. <10 t/d Low Easy
Physical disinfection Microwave disinfection Low action temperature, energy-saving, slow heat loss, and less pollutant release without gaseous emissions; relatively narrow disinfection spectrum and complex impact factors of disinfection. <10 t/d High Complex
High-temperature steam disinfection Available in various volumes, using heat released by water vapor to make pathogenic microorganisms undergo protein denaturation and coagulation; weak odor control. <10 t/d Low Easy
Incineration Pyrolysis vaporization incinerator The organic components of the waste are decomposed into flammable gases in order to avoid dust due to the turbulence caused by the excess air; high investment costs and strict requirements on heat levels of wastes, potential emission of carcinogens. >10 t/d High Easy
Rotary kiln incinerator Enables the wastes to be well mixed, improves incineration efficiency; high dust content in the exhaust, high air volume requirements, high investment and maintenance costs, potential emission of carcinogens.
Plasma incineration Transfers energy through plasma; wastes can be quickly decomposed into small molecules and even atoms. High requirement for technical personnel and high costs, potential emission of carcinogens.
Tab.7  Disinfection techniques for medical wastes
Fig.4  Guidance on waste collection priorities (extract from the guidance of the Department for Environment Food and Rural Affairs, GOV.UK,2020a).
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