Governance Strategies for Mitigating Microplastic Pollution in the Marine Environment: A Review
Abstract
:1. Introduction
2. Chemical Compositions of Plastics
2.1. Breakdown and Plastic Degradation
2.2. Chemical Additives in Microplastics: Phthalate Plasticizers and Flame Retardants
2.3. Microplastics’ Contamination and Metal Adsorption
3. Sources of Microplastics in Aquatic Environments
4. Transfer, Accumulation, and Effects of Microplastics in the Food Chain
4.1. Effects of Microplastics on Aquatic Biota
4.1.1. Fish
4.1.2. Zooplankton
4.1.3. Mussels
4.2. Human Health Effects of Microplastics
5. Plastic Bag Policy Interventions Aimed at Single-Use Plastic Reductions in Coastal Ecosystems
5.1. Microbead Ban Interventions
5.2. Critiques in Plastic and Microbead Ban Interventions and the Way Forward
6. Governance Approaches and Management Practices for Microplastics’ Pollution
6.1. Governance Approaches to Microplastics’ Pollution
6.2. Management of Microplastics and Plastic Debris
7. Conclusions and Recommendations
- How do chemical pollutants that leach from microplastics once ingested become adsorbed into the tissues of aquatic organisms?
- More studies on ecosystem-level impacts of microplastic pollution using multiple species and trophic levels are required rather than laboratory studies on single species.
- More studies on biomagnification of chemical pollutants associated with ingested microplastics and the impact on higher trophic levels, especially humans, are required.
- Long-term monitoring to further characterize microplastics and establish their interactions with persistent organic pollutants is required.
- More studies on the fragmentation of microplastics into nanoplastics are required, as nanoplastics could have more detrimental size-dependent effects on aquatic organisms.
- Continued re-assessment of community and government strategies for plastic waste reduction is required.
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Species Name | Effects | References |
---|---|---|
Blue mussel (Mytilus edilus) | Decreased feeding activity | [123] |
Blue mussel (Mytilus edilus) | Formations of granulocytoma in digestive glands and lysosomal membranes’ destabilization | [121] |
Mytilus galloprovincialis | Ingestion of resin pellets | [62] |
Zooplankton | Ingestion and accumulation of phthalic acid esters, organophosphate ester flame retardants, and plasticizers accumulated in zooplankton | [37] |
Blue mussels (Mytilus galloprovincialis) | Increased levels of absorption of PCBs led to toxic effects. The increase in desorption of pyrene ingested by the blue mussels led to abnormalities and lethal effects on DNA and indicated neurotoxic effects | [122] |
Pelagic fishes and holothurians | Boops boops, a pelagic fish, ingested 70% of microplastics’ fibers. Ingestion of plastic pellets of holothurians via food web | [117] |
Copepod (Calanus helgolandicus, C. cristatus, Euphasiapacifa) | Ingestion, reduced feeding, decreased reproduction rates, decrease in egg production | [118,124] |
European flat oysters (Ostreaedulis) | Ingestion and abnormal respiration rates | [125] |
Mussel | Cytotoxicity, decrease in phagocytic activity, and increase in lysozyme activity | [126] |
Sea turtles (Chelonioidea) | Ingestion | [127] |
Mussel, amphipods (Allorchestes compressa) | Ingestion, formation of granulocytomas and lysosomal membrane destabilization/vector for POP accumulation | [120,128,129,130] |
Lugworm (Arenicola marina) | Ingestion may cause increased metabolic rates, reduced fecal casts’ formation, fitness effects | [99,125] |
Brown shrimp (Crangon cragon) | Ingestion | [131] |
Zebrafish (Danio rerio) | Found in fish tissues | [132] |
Gooseneck barnacles (Lepas sp.) | Ingestion | [133] |
Zebrafish | Microplastics entered embryos and larvae | [134] |
Zooplankton Fish | Reduce survival of aquatic zooplankton Penetrate blood-to-brain barrier and may cause behavioral disorders in fish | [135] |
Zooplankton (Centropages typicus, Daphnia magna) | Ingestion/decreased algal feeding/causes Immobilization | [136,137] |
Sea urchin | Detected in digestive tract of embryos | [138] |
Demersal (cod, dab, flounder/pelagic fish (herring and mackerel) | Ingestion | [139] |
Oyster | Significant decrease in fertilization and embryo–larval growth deformities | [140] |
Shore crab (Carcinus maenas) | Ingestion uptake through gills | [77] |
Bivalves (Mytilus edulis, Crassostrea gigas/Macoma bathica, Mytilus trossulus) | Ingestion and accumulation in soft tissues | [128,141,142] |
Marine fish (Pomatoschistus microps, Artemia nauplii, Danio rerio, Oryzias latipes) | Ingestion, liver inflammation, pathological and oxidative stress, lipid accumulation in liver | [114,143,144,145] |
Paracentrotus lividus | Growth deformities | [146] |
Crassostrea virginica | Ingestion | [139,147] |
Mytilus edulis | Translocation to the circulatory system | [122,129] |
Nephrops norvegicus | Retention Accumulation | [148] |
Semibalanus balanoides | Ingestion | [149] |
Carcinus maenas | Retention | [77] |
Mysis sp. | Ingestion No accumulation | [150] |
Arenicola marina | Reduced feeding habits and energy budget | [56] |
Chironomus tepperi | Significantly increased mortality | [151] |
Tripneustes gratilla | Significantly reduced body width | [152] |
Paracyclopina nana | Development significantly delayed for 0.05 μm | [153] |
Palaemonetes pugio | Significantly increased mortality by larger particles (>75 μm) | [154] |
Mytilus galloprovincialis | Significantly increased number of dead hemocytes | [155] |
Seabirds (red-breasted mergansers (Mergus serrator), Pacific loons (Gavia pacifica), Swinhoe’s storm petrels (Hydrobates monorhis), black-tailed gulls (Larus crassirostris), and ancient murrelets (Synthliboramphus antiquus) | Ingestion | [76] |
Commercial fish | Gastrointestinal tract and gills of fish. Cr and Fe were detected on microplastics | [156] |
Mussels | Ingestion and accumulation in soft tissues | [157] |
Mussels | Exposure (24 h and 7 days) to microplastics caused a short-lived increase in Superoxide dismutase (SOD) activity while nanoplastics’ exposure triggered an innate immune response | [158] |
Country | Action Plan | Year | Policy | Aim | Enforcement | Tax, Levy, Fines | Impacts |
---|---|---|---|---|---|---|---|
Africa | |||||||
Nigeria | Ban | 2019 | Interventions are lacking generally but the country is under pressure from experts to ban use of plastic bags since Kenya passed its policy. The Plastic Bags Prohibition Bill has been passed by the Federal House of Representatives but has not been approved by the Nigerian Senate or passed into Act (Law) | Plastic pollution mitigation | Not enforced | Defaulters are liable to pay fines of 500,000 Naira (₦500,000 or USD 1290) or to imprisonment of up to 3 years or both penalties | The Bill is declining. Although it has not generated any interest, the impact would be enormous and eco-friendly. |
Benin | Partial Ban | 2018 | A ban on the production, importation, possession, and use of non-biodegradable plastics | Environmental Protection and sanitation | Poorly enforced | Defaulters are liable to a fine ranging from 5000–100,000 CFA francs (US $9–170) | In effect. Too early to assess impacts. |
Kenya | Ban | 2017 | Implementation of a national ban on plastic bags including the importation, production, distribution, and use of single-use bags. The implementation of the ban of plastic bags on the distributors and producers of single-use bags | Environmental preservation, conservation, and protection. Solid waste management | Enforced | Violation may result in a 4-year prison sentence or a 40,000 KES (USD 376) fine | Although the law has been undermined by the activities of smugglers, there has been a reduction rate of about 100 million plastic bags used yearly |
Ghana | Tentative Ban | 2014 | There was an attempt to ban plastics but it failed to be implemented | Revenue generation for plastic waste management | Poorly enforced | Currently, no law banning plastic bags‘ production, importation, or usage | The government believes plastic manufacturers play critical roles in the economy, hence, working effortlessly on managing plastics instead of banning them |
Togo | Ban | 2011 | An intervention on the banning of the production, importation, possession, and commercial use of non-biodegradable plastics | Environmental Protection | - | Defaulters pay fines ranging from 5 million to 10 million FCAF (US $8517–17,035) or go to prison for terms between 2 months to 2 years | - |
Morocco | Ban | 2009 (Partial Ban), 2016 (Full Ban) | Ban on manufacture, distribution, and importation of plastic bags | Plastic bag pollution halt | Poorly enforced | Violators pay fines ranging from $20,000 USD to over $100,000 USD | The government is ensuring that plastic bag alternatives are easily accessible. |
Rwanda | Ban | 2008 | A national ban on non-biodegradable plastic bags prohibits the production, usage, importation, and sale of plastic bags. Visitors into the country are not allowed to bring plastic bags. | Plastic pollution mitigation | Poorly enforced | Fined, imprisoned, public confessions. Six months in jail for Smugglers and 1 year for company executives. License suspension of stores. Dispossession of plastic bags from plastics‘ producers and a fine of 10 million Rwandan francs (USD 10) | Rwanda has seen an increase in tourism due to reduced plastic bags pollution resulting in an increase of about 177,000 new jobs |
South Africa | Tax/ partial ban | 2003 | Prohibition of Plastic carrier bags and plastic flat bags less than 30 μm thick. Tax on thicker bags | Revenue generation. Removal and phasing out of harmful plastic products | Enforced | Levy, which increased from 12 cents to 25 cents in April 2020 | Between 2018/19 the revenue generated from bag levies increased by R59 million (USD 3 million) to R300 million (USD 17 million) |
Asia | |||||||
Malaysia | Ban | 2017 | Ban on non-biodegradable plastic bags | Environmental protection and sustainability | Poorly enforced. Several warnings have been issued against traders in the Federal Territories | Customers charge for biodegradable plastic bags up to RM0.20. Fine of RM1000 for non-compliance for business owners, 1 year in jail, cancellation of business license | Practice has been growing |
Israel | Ban | 2017 | Banned distribution of lightweight plastic bags <20 μm | To cut plastic waste | - | Charges for bags between 20 and 50 μm in all supermarkets | An 80% drop in plastic bag consumption |
India (Karnataka) | Ban | 2016 | Its law targeted the ban of different single-use plastic items, including plastic dinnerware. This policy puts pressure on manufacturers, consumers, and distributors. | Decrease plastic pollution | Non-enforced | Fines of Rs 500 in Kolkata, Rs 5000 in New Delhi | The policy was first implemented in 2016, and studies on its impact have yet to be pronounced due to weak enforcement. |
China | Ban | 2008 | Banned the distribution of single-use plastic bags in grocery stores and shops around the country. | Decrease in plastic bag production | Enforced | Fines of 10,000 yuan, summing up to 1593 USD, for any companies for any illegal plastic bag distribution. | The NRDC estimates that China has seen a 66% decrease in plastic bag usage since the ban. Additionally, 600,000 regulators have been sent to grocery stores around the country to ensure compliance. |
Bangladesh | Ban | 2002 | The Bangladesh government banned the assembling, promoting, and utilization of polyethylene packs of less than 55 μm thickness. Jute fibers were used to replace polythene bags for packaging in 2010. | Environmental protection and plastic pollution mitigation | Non-enforced | Jail or a fine of TK50,000-10 lakh | Polythene has been continuously produced, traded, and utilized all over the country. Dhaka plastic use increased from 1.74% in 1992 to 6.5% in 2014 in overall landfills. Lack of impacts is due to non-enactment of the law and lack of economical environment-friendly options. |
Europe | |||||||
France | 2017 | Ban/Tax | Supermarkets and retail stores are prohibited from distributing free plastic bags | Plastic waste reduction | - | Tax of €0.04 ($0.05 USD) per bag, rose to €0.07 ($0.09 USD) in 2019 | In effect. Too early to assess impacts. |
Netherlands | 2016 | Tax | A tax is payable for plastic bags. Exemption from the levy applies to bags used for food or preventing food waste. | To combat litter in the streets and the sea and prevent wastage of resources | Non enforced | 25 Euro cents per bag is advised, but the rate is not enforceable. | Ban resulted in a 40% reduction of plastic bag use |
United Kingdom | Tax | 2015 | UK stores began charging 5 cent per single-use plastic carrier bag in October 2015. Consumers are allowed to bring reusable bags to avoid being charged for bags | Economic and environmental benefits | Enforced | Levy on consumer (£0.05, around USD 0.06), though the plastic bag charge applies to any business that has more than 250 employees and voluntarily for smaller retailers in England | Plastic bag consumption has declined by over 80%. Significant economic benefits for the UK Government to be realized from the regular £60 million decreases in litter clean-up costs and £13 million in carbon reserves |
Bulgaria | 2012 | Tax | Tax for single-use plastic bags | Waste prevention and management | - | Tax for bags <25 μm in October 2012 at 15 stotinki per bag. It has increased to 55 stotinki | Bag consumption more than halved in the first month of the tax |
Ireland | 2002 | Tax | Legislation passed to create a levy for the sale of plastic bags in retail stores | To reduce plastic waste and the adverse effects | Enforced | The levy started at 15 Euro cents/bag in 2002, and, in 2007, the levy increased to 22 Euro cents/bag. The levy was increased to 44 Euro cents in 2009 | Discarded plastic bags amounted to 0.13% of litter pollution in 2015 as compared to an estimated 5% in 2001 |
Denmark | 1994 | Tax | The legislation was passed that forces plastic bag producers to pay tax based on the weight of plastic bags | Environmental Protection | - | Plastic bags cost consumers between 37 and 65 US cents | Reduction in the single-use plastic bags. |
Germany | 1991 | Tax | Legislation passed to ensure that retail stores providing plastic bags pay a tax or levy | Environmentally friendly | Enforced | 5 or 10 Euro cents/bag. Following the EU announcement, the country will charge 20 cents per bag | The reduction in the use of lightweight plastic bags |
North America | |||||||
Boston, MA | 2018 | Tax and Ban | A dual approach of taxation and bans on single-use bags was implemented | Reduction of plastic waste | - | A tax of 5 cents | Over 350 million plastic bags that were utilized yearly were drastically reduced |
Canada | 2016 | Tax | Tax for all shopping bags | To reduce plastic bag use | Non-enforced | Walmart Canada began charging customers a 5-cent fee | - |
Seattle, WA | 2012 | Ban | Retail stores banned from releasing single-use bags. Grocery stores were permitted to use single-use bags that were composed of 40% recycled material | Reduction of plastic waste | - | A tax of 5 cent per bag | There has been a 78% reduction in plastic bag use |
United States of America | 2009 | Tax | Washington, D.C., was one of the first cities in the USA to pilot the way to ending plastic pollution. The revenue realized was for the Anacostia River Clean Up and Protection Fund and reusable bag gifts to poor and aged communities in the city | Curbing Plastic Pollution. Revenue generation | Enforced | A 5-cent tax on plastic bags | 85% reduction in plastic bag consumption was achieved. The number of bags consumed daily by D.C. locals reduced to 3.3 million bags per month compared to the initial 22.5 million bags per month |
San Francisco | 2007, Amended in 2012 | Policy | Policy implemented to use reusable bags by placing an additional 10-cent fee on single-use compostable or recycled paper bags that clients require at departure | Zero waste by 2020 and environmental stewardship | - | No bag fee | A decrease in plastic bag use by 72% was achieved since the policy was implemented in 2010. The ammended ban anticipates further plastic bag reductions of between 70% to 90% |
Oceania | |||||||
New Zealand | 2019 | Ban | Plastic shopping bags with a thickness <70 microns were banned in July 2019 after the first pronouncement on 18 December 2018. | Plastic pollution mitigation | - | Defaulters are to pay fines up to £51,000. | The impact is yet to be seen. |
Papua New Guinea | 2016 | Ban | A nationwide ban on plastic bags | Plastic pollution mitigation | - | Companies face K50,000 fine on plastics. | The government promoted use of traditional and locally manufactured bilum bags. |
Australia | 2011 | Ban | Banned plastic bags including all single-use polyethylene polymer bags that are less than 35 microns thick. Citizens were encouraged to bring reusable bags when shopping. | To reduce plastic wastes and for a green ecosystem. | Enforced | - | Ban eliminated 33% of plastic waste sent to landfills. It is estimated that 400 million bags were eliminated annually. An 80% decrease within 3 months, the two biggest supermarkets were banned from use of single-use plastics. |
South America | |||||||
Chile | 2017(2018) | Ban | Ban on businesses that keep distributing plastic bags, accompanied by government-coordinated beach cleanups, specifically during peak vacation times when most of the plastic waste is accumulated on the beach. | Plastic waste reduction | Enforced | Fines equal to USD 300 | Some 80 municipalities have restricted plastic bag distribution, while some coastal and lakeside areas have banned plastic bags altogether. In late May 2018, major retailers were prohibited from using plastic bags while smaller retailers were given a grace of 2 years to stop plastic use. Within the period, only two bags for each customer were allowed. |
Colombia | 2017 | Ban | Ban on single-use plastics and bags <30 cm. | Reduce single-use plastics | - | A fee of 1 US cent | In effect. Too early to assess impacts. |
Brazil | 2015 | Ban | Ban on the distribution of plastic bags in supermarkets | To encourage biodegradable bags | Non-enforced | - | Lack of enforcement prohibits seeing great positive impacts |
Argentina | 2012 | Ban | The province of Mendoza in Argentina joined Buenos Aires in a ban on plastic bags | To discourage non-biodegradable bags | - | - | Use of biodegradable bags and boosts recycling incentives |
EU Directives | Date | Objective | EU Country Participation |
---|---|---|---|
Bio-based, biodegradable, and compostable plastics | First announced 11 December 2019, published action plan on 11 March 2020 | The EU will address the sourcing, labelling, and use of bio-based plastics, and the use of biodegradable and compostable plastics | Denmark |
Global action on plastics | Adopted December 2020, UNEA5.2 will take place from 28 February to 4 March 2022 | The EU is paving way for a global agreement on plastics, to support the global shift towards a circular economy | Germany |
Microplastics | The first and second stakeholder meetings held September and November 2021, respectively. | The EU aims to address the growing volume of microplastics in the environment | Netherlands, Austria, Belgium, Sweden, Luxembourg |
Plastic bags | Amendment to the Packaging and Packaging Waste Directive (94/62/EC) | EU rules on plastic bags to address the unsustainable consumption and use of lightweight plastic carrier bags | Ireland, Denmark, France |
Plastic packaging | Entry into force on 31 December 1994. 30 September 2020–6 January 2021 was an open public consultation on the review of requirements for packaging and other measures to prevent packaging waste | EU rules on packaging and packaging waste cover all materials, including plastics | Netherlands |
Plastic waste shipments | Entry into force on 1 January 2021 | EU rules on importing and exporting plastic waste | Poland |
Single-use plastics (SUP) | 2 July 2019, Commission adopted the Implementing Decision 2021/1752 by 1 October 2021 | EU rules on SUPs to fight against marine litter and plastic pollution | Bulgaria |
Country | Year of Ban | Policy | Purpose of Ban | Impact of the Ban |
---|---|---|---|---|
U.S. (National) | 2015 (2017–2019) | The amendment of the Federal Food, Drug, and Cosmetic Act gave rise to the Microbead-Free Waters Act of 2015 to ban rinse-off cosmetics that contain intentionally added plastic microbeads beginning on 1 January 2018 and to ban manufacturing of these cosmetics beginning on 1 July 2017. although the bans were delayed by 1 year for cosmetics that are over-the-counter drugs. | The ban was to oversee the manufacturing and importing of cosmetic products and over-the-counter medication that include synthetic microbeads. | In 2015, State legislature passed legislation that was due to phase in a ban of synthetic microbeads in Colorado, Maine, New Jersey, Wisconsin, Indiana, Maryland, Connecticut, New York, California, and Illinois, among others. |
Austria, Belgium, Sweden, Netherlands, Luxembourg (Multi-national) | 2015 | These countries issued a joint statement requesting a ban on microbeads in personal care products. | Protecting marine ecosystems, including seafood, from contamination, | The countries forwarded their joint call on eliminating microbeads in cosmetics and detergent to the European Union’s Environment Ministers. Some companies have shown a commitment to stop using microplastics and microbeads in their products. |
Canada (National) | 2016 (2018–2019) | National ban on microbead products. Canada became the first country to list microbeads as a “toxic substance”. | Aimed to ban the manufacture, import, and sale of products containing microbeads, was phased in during 2018 and 2019. | The Ontario parliament passed legislation to ban microbeads in 2015. The legislation prevents the production of microbeads in Ontario. This ban commenced in June 2017. |
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Onyena, A.P.; Aniche, D.C.; Ogbolu, B.O.; Rakib, M.R.J.; Uddin, J.; Walker, T.R. Governance Strategies for Mitigating Microplastic Pollution in the Marine Environment: A Review. Microplastics 2022, 1, 15-46. https://doi.org/10.3390/microplastics1010003
Onyena AP, Aniche DC, Ogbolu BO, Rakib MRJ, Uddin J, Walker TR. Governance Strategies for Mitigating Microplastic Pollution in the Marine Environment: A Review. Microplastics. 2022; 1(1):15-46. https://doi.org/10.3390/microplastics1010003
Chicago/Turabian StyleOnyena, Amarachi Paschaline, Donald Chukwudi Aniche, Bright Ogechi Ogbolu, Md. Refat Jahan Rakib, Jamal Uddin, and Tony R. Walker. 2022. "Governance Strategies for Mitigating Microplastic Pollution in the Marine Environment: A Review" Microplastics 1, no. 1: 15-46. https://doi.org/10.3390/microplastics1010003