Austria and the United States have some of the highest volumes of municipal solid waste generation per capita worldwide, with each citizen producing on average over 800 kilograms annually. In contrast, municipal solid waste generation in Japan stood around 320 kilograms per capita, according to the latest available data. Global waste management landscape Global municipal waste generation is projected to grow 75 percent between 2020 and 2050, nearing four billion metric tons per annum by the latter year. As such, the importance of efficient disposal methods becomes increasingly critical. In 2020, the largest share of global municipal waste was managed in an uncontrolled manner, often ending up in open dumps. Landfilling accounted for another 30 percent, while less than 20 percent was recycled that year. Leading waste management companies French-based Veolia is by far the largest company in the waste management industry in terms of revenue, with 50 billion U.S. dollars generated in 2023. Across the Atlantic, the U.S. is also home to some of the largest waste management companies in the world, including Waste Management Inc., and Republic Services. Despite the high waste generation rates in developed countries, the growth in waste production is forecast to accelerate faster in low-income regions, presenting new challenges and opportunities for waste management companies worldwide.

China produced **** percent of global municipal solid waste (MSW) generation in 2018. However, when taking population into account the United States creates the most waste. The U.S. represents just **** percent of the global population but was responsible for ***** percent of global waste generation. This was the same share that was generated by India, a country with a population of more than *********** people. Food waste The most common type of waste is food and green waste, making up almost half of globally generated MSW. Every year Americans produce approximately ** billion kilograms of food waste, equating to almost *** kilograms of food waste per capita. Still, this is less than the amount of food waste produced by the average Australian, which stands at more than *** kilograms per year. Environmental impacts The immense volume of waste produced around the world every year has become an increasing cause of environmental pollution. There are many forms of waste pollution, such as methane emissions from food waste that has been landfilled, and toxic chemical leaks from e-waste. But it is plastic waste that has been in the public eye in recent years due to its devastating impact on marine life.

Norway generated the largest amount of municipal waste per capita in Europe in 2023, at *** kilograms per inhabitant. Luxembourg ranked second, also with over *** kilograms per capita. Nevertheless, based on data from the previous year, the average Austrian and Dane had the highest municipal waste generation rates in Europe, at over *** kilograms per capita. How does Europe compare to the rest of the world? High-income European countries such as Norway, Denmark, and Austria have some of the highest municipal waste generation rates worldwide. Nevertheless, the average municipal waste generation in European OECD countries was just below the OECD average, estimated at *** kilograms per capita in 2022. That year, Europeans generated on average *** kilograms less municipal waste than the average American. Trends in municipal waste in the EU In 2023, the EU’s average municipal waste generation stood at *** kilograms per capita, slightly down from *** kilograms per capita a year earlier. This was the second consecutive year of decline after a continual growth between 2014 and 2021. While municipal waste generation grew by **** percent in that period, municipal waste recycling per capita in the EU also increased, by roughly ** percent to some *** kilograms.

In 2022, municipal waste generation in OECD countries was estimated at 530.6 kilograms. The Americas had the highest rate, at roughly 613 kilograms per person. In contrast, OECD countries in Asia Oceania recorded an average of 402 kilograms of municipal waste generated per person.

Every year huge quantities of food are discarded worldwide. On average, *** kilograms of food were wasted per person in 2022, with households wasting an average of ** kilograms per person. Food waste is a major issue worldwide, not just in terms of hunger, but also emissions. It is estimated that up to ** percent of global greenhouse gas emissions are attributable to food waste.

About the Dataset: Waste Management and Recycling in India

Overview:

This dataset provides comprehensive information on waste management and recycling practices in various cities across India. It includes key data related to waste generation, recycling rates, population density, municipal efficiency, landfill details, and more. The data spans multiple years (2019–2023) and covers a range of waste types, including plastic, organic waste, electronic waste (e-waste), construction waste, and hazardous waste.

Purpose:

The dataset aims to: - Promote efficient waste management practices across Indian cities. - Analyze trends in recycling and waste disposal methods. - Provide insights for improving municipal management systems. - Support research and development in sustainability, environmental science, and urban planning.

Columns:

1. City/District: The name of the Indian city or district.
2. Waste Type: Type of waste generated, e.g., Plastic, Organic, E-Waste, Construction, Hazardous.
3. Waste Generated (Tons/Day): Amount of waste generated in tons per day.
4. Recycling Rate (%): The percentage of waste that is recycled.
5. Population Density (People/km²): The number of people per square kilometer in the city.
6. Municipal Efficiency Score (1-10): A score indicating how effectively the municipality manages waste (e.g., waste segregation, collection, disposal).
7. Disposal Method: The method used for waste disposal (e.g., Landfill, Recycling, Incineration, Composting).
8. Cost of Waste Management (₹/Ton): The cost of managing one ton of waste in Indian Rupees.
9. Awareness Campaigns Count: The number of awareness campaigns organized by the municipality in that year related to waste management.
10. Landfill Name: The name of the landfill site used by the city.
11. Landfill Location (Lat, Long): The geographical location (latitude and longitude) of the landfill.
12. Landfill Capacity (Tons): The total waste capacity (in tons) that the landfill can hold.
13. Year: The year of the data entry, ranging from 2019 to 2023.

Applications:

• Urban Planning: The dataset can be used to analyze and optimize waste management infrastructure in urban areas.
• Sustainability Research: It can help in studying the progress of recycling and waste reduction strategies.
• Policy Making: Government bodies can use this data to craft policies aimed at improving waste management and recycling rates.
• Machine Learning/AI: The dataset can be used to build models for predicting waste generation trends, recycling outcomes, and municipal efficiency.

Sources:

• The data is simulated for this dataset based on average waste management practices observed in Indian cities.
• Real-world data could come from municipal corporations, environmental agencies, and government reports on waste management.

The average American generated 4.9 pounds of municipal solid waste (MSW) in 2018. This is a considerable increase from 1960, when 2.68 pounds of MSW were generated in the United States per capita.

Municipal solid waste in the U.S.

Commonly referred to as trash, municipal solid waste (MSW) comprises of a variety of materials such as paper, plastics, metals, and food. The volume of MSW generation in the U.S. has increased massively since the 1960s. In that year, less than 90 million tons of materials and products entered the U.S. waste management system from residential, commercial and institutional sources. By 1990, this amount had increased to more than 200 million tons, and most recently in 2018 totaled 292 million tons. The U.S. is one of largest producers of MSW worldwide.

Waste disposal methods in the U.S.

The United States has a number of waste treatment methods to deal with the large volumes of waste generated each year, such as combustion with energy recovery and composting. Recycling has seen considerable growth over the years, but landfilling remains the main disposal method in the U.S.

The global waste management sector, currently valued at approximately $XX million (assuming a reasonable value based on typical market sizes for such sectors and the provided CAGR), is experiencing robust growth, projected to achieve a compound annual growth rate (CAGR) of 5.00% from 2025 to 2033. This expansion is driven by several key factors. Stringent government regulations aimed at reducing landfill waste and promoting environmentally sustainable practices are creating significant demand for advanced waste management solutions. The increasing generation of e-waste and plastic waste, coupled with rising environmental awareness among consumers and businesses, are further fueling market growth. Technological advancements in waste processing, including improved recycling technologies and innovative incineration methods, are also contributing to the sector's expansion. Furthermore, the growing adoption of public-private partnerships and increasing investments in waste management infrastructure are supporting the industry's overall development. The diverse segments within the waste management industry, including industrial waste, municipal solid waste, e-waste, plastic waste, and biomedical waste, each present unique opportunities and challenges, influencing the overall market dynamics. The market's growth trajectory is, however, subject to certain restraints. Fluctuations in raw material prices, particularly for recyclable materials, can impact profitability. The high capital expenditure required for establishing and upgrading waste management infrastructure poses a significant barrier to entry for smaller players. Moreover, challenges in effectively managing hazardous waste, ensuring efficient waste collection systems, particularly in developing economies, and the lack of awareness and participation from the public remain critical aspects influencing the market's potential. Geographical variations also exist, with developed regions like North America and Europe showing more mature markets compared to rapidly developing economies in Asia Pacific, which present significant future growth potential. Leading companies such as Biffa Group, Clean Harbors Inc., Covanta Holding Corporation, and Waste Management Inc. are actively shaping the sector's landscape through strategic acquisitions, technological innovations, and expansion into new geographical markets. The competitive landscape is dynamic, characterized by both consolidation and the emergence of niche players offering specialized waste management services. This comprehensive report provides a detailed analysis of the global waste management sector, covering the period from 2019 to 2033. With a base year of 2025 and a forecast period extending to 2033, this study offers invaluable insights into market dynamics, growth drivers, challenges, and future trends. The report incorporates data from the historical period (2019-2024) and leverages key performance indicators to provide a robust understanding of this rapidly evolving industry. Keywords: Waste management, municipal solid waste, industrial waste, e-waste, plastic waste, recycling, incineration, landfill, waste disposal, waste treatment, environmental regulations, market analysis, industry trends, market size, market share, M&A activity, Veolia, Waste Management, Republic Services, Biffa, Clean Harbors. Recent developments include: February 2021: Biffa group announced the acquisition of Company Shop Group ('CSG'), the UK's leading and largest redistributor of surplus food and household products., October 2020: Waste Management completed its acquisition of all outstanding shares of Advanced Disposal, following the receipt of required regulatory approvals. The previously announced purchase price of USD 30.30 per share in cash represents a total enterprise value of USD 4.6 billion when including approximately USD 1.8 billion of Advanced Disposal's net debt.. Notable trends are: Spotlight on the Construction and Demolition waste management systems.

In 2022, Europe was the continent that generated the most e-waste per capita, at an average of **** kilograms. This was slightly more than the per capita generation in Oceania. Although Europe has the highest per capita rate, in terms of total e-waste generation, Asia produces the largest voume. The majority of e-waste generated around the world is from small electronic equipment. This includes products such as vacuum cleaners, microwaves, and cameras.

Solid Waste: Average Expenditure per Capita per Year: North data was reported at 115.680 BRL in 2021. This records an increase from the previous number of 105.420 BRL for 2020. Solid Waste: Average Expenditure per Capita per Year: North data is updated yearly, averaging 110.820 BRL from Dec 2019 (Median) to 2021, with 3 observations. The data reached an all-time high of 115.680 BRL in 2021 and a record low of 105.420 BRL in 2020. Solid Waste: Average Expenditure per Capita per Year: North data remains active status in CEIC and is reported by Ministry of Cities. The data is categorized under Brazil Premium Database’s Environmental, Social and Governance Sector – Table BR.EVE014: Solid Waste: Expenditure.

The average municipal solid waste (MSW) landfill tipping fee in the United States decreased *** percent in 2023 to **** U.S. dollars per ton. Average landfill tipping fees were highest in the Northeast, at ***** U.S. dollars per ton. U.S. landfill sites are regulated by each state’s environmental agency which, in turn, follows the guidelines set by the United States Environmental Protection Agency (EPA). Landfill sites in the U.S. The number of landfills in the U.S has dropped dramatically in the last few decades, to ***** units in 2018. The largest landfill site in the U.S is the Apex Regional, located in Las Vegas, Nevada. This dump site has a capacity for nearly *********** tons of waste and stretches for more than 2,000 acres. Waste generation As of 2018, MSW generation in the U.S. stood at almost *********** tons, with the average American producing roughly **** pounds of municipal solid waste per day. This is more than any other country produces worldwide. Waste generation in the U.S. has increased dramatically since the 1960s as a result of increased consumerism and a "throwaway culture".

In 2022, the average global e-waste generation per capita stood at *** kilograms, a growth of ** percent in comparison to 2010. This amounted to a global e-waste generation of nearly ** million metric tons that year. Four of the top five countries in e-waste generation per capita were located in Europe, with Norway leading the ranking at **** kilograms per inhabitant.

This dataset provides the input files and results for the new Household Simulation Model, which explores the impact of four interventions on the amount of packaging and chicken waste generated in UK households. The interventions studied include pack size availability in the market shelves (PCK), shelf life extension for unopened and opened chicken packs (SFH), food portioning in households (PRT), and the likelihood of checking storage and writing a shopping list before the main shopping event (LST). The dataset is organised into four folders, each representing an intervention, with subfolders containing input files for different scenarios and a summary file with the results. The provided data can be used to analyse the effectiveness of various strategies in reducing packaging and food waste and to inform policy-making and consumer behavior change efforts.

THE PROBLEM Plastic packaging waste is a major issue that has recently entered public consciousness, with the British government committing to a 25-year plan that would phase out disposable packaging by 2042. Around 41% of plastic packaging is used for food, with the UK generating 1 million tonnes per year of packaging waste. Food packaging has had a 1844% increase in recycling since 2007, yet still only one third of food packaging is currently recycled [3]. Currently many consumers are boycotting plastic packaging. However, this is leading to a rise in food waste (and foodborne illness risk) due to decreased shelf life. Up to a third of the resources used to produce food could be saved by eliminating food waste [1]. In the UK, approximately 10 million tonnes of food are wasted every year, with the average family (i.e. a household containing children) spending £700 a year on food that is wasted. 31% of avoidable household food waste (1.3 million tonnes), is caused by a mismatch of packaging, pack, and portion size, and household food habits [2]. Plastic pollution and food waste can be reduced through product re-design and other household interventions. However, there is little evidence to determine the best solutions to reduce plastic pollution and food waste. The food industry and consumers have a variety of possible solutions, but no way of knowing the impacts and unintended consequences (without costly, time consuming trials and measurement). This is a major barrier to empowering the food system to enable the rapid reduction of plastic waste.

THE VISION This project reduces plastic pollution (and food waste) by providing a decision support tool to trigger action in the food industry and by consumers. Evidence concerning plastic and food waste reduction (and trade-offs with cost, and environmental impacts) will be generated by updating the Household Simulation Model (HHSM). The HHSM was piloted by the University of Sheffield and WRAP (the Waste & Resources Action Programme) to model the impacts of food product innovation quickly, to enable manufacturers to select the best innovations and interventions, and to prioritise their development and deployment. This project will incorporate into the current HHSM, data on 1) plastic packaging options and composition (from Valpak/WRAP), 2) household behavioural insights around packaging (single and reuse options) and food (provided by UoS/WRAP), with specific fresh produce data (from Greenwich) 3) plastic in the supply chain and environmental impacts (via SCEnATi- a big data analytics tool of the food supply chain processes (provided by Sheffield).

The updated HHSM will enable the quantification of plastic and food waste reduction, and the environmental and monetary trade-offs of various solutions. This will be done by developing an optimization engine and integrating it with the updated HHSM which will further the simulation optimization methodology with the findings from applying developed meta-heuristic algorithms to this problem. Possible solutions include offering consumers different pack sizes, or changing packaging type/shape/reusability/durability. The most successful solutions will be translated into consumer and industry guidance focusing on the top 30 foods linked to the highest waste and tradeoff potential. This will enable rapid product and food system redesign. This guidance will be open access, and deployed through WRAP and global industry networks, and open access web tools.

WRAP is coordinating the voluntary agreements UK Plastics Pact and the Courtauld Commitment 2025 (focused on food waste and carbon reduction). This allows rapid scaling of the HHSM outputs throughout the UK.

References: [1] Institution of Mechanical Engineers, "Global food - Waste not, want not" London, 2013 [2] Quested, T. E., et al. "Spaghetti soup: The complex world of food waste behaviours." RCR 79 (2013): 43-51. [3] Recoup 2018, UK Household Plastics Collection

E-Waste Recycling Service Market Outlook

According to our latest research, the global E-Waste Recycling Service market size reached USD 24.6 billion in 2024, reflecting robust growth driven by increasing environmental awareness and stringent regulatory frameworks. The market is projected to expand at a CAGR of 12.4% from 2025 to 2033, reaching an estimated value of USD 71.2 billion by 2033. This impressive growth trajectory is underpinned by the rising volume of electronic waste generated worldwide, as well as growing demand for sustainable waste management solutions and valuable material recovery. As per our comprehensive analysis, the market’s expansion is further fueled by rapid technological advancements and the proliferation of electronic devices across both developed and emerging economies.

One of the primary growth drivers for the E-Waste Recycling Service market is the escalating consumption and disposal of electronic products, including smartphones, computers, televisions, and household appliances. As digital transformation accelerates, the average lifespan of electronic devices continues to shrink, causing a surge in e-waste generation. This phenomenon is particularly pronounced in urbanized regions, where consumer electronics turnover rates are highest. Additionally, the increasing adoption of the Internet of Things (IoT) and smart home technologies is leading to a broader array of discarded electronic components, further amplifying the need for efficient recycling services. The mounting awareness among consumers and organizations regarding the environmental hazards posed by improper e-waste disposal has also contributed to the heightened demand for responsible recycling solutions.

Another significant factor propelling the market is the implementation of stringent environmental regulations and policies by governments worldwide. Regulatory bodies in North America, Europe, and Asia Pacific have introduced comprehensive e-waste management directives, mandating proper collection, recycling, and disposal of electronic waste. These regulations not only encourage responsible e-waste handling by manufacturers and consumers but also create lucrative opportunities for service providers specializing in recycling, refurbishment, and materials recovery. The enforcement of extended producer responsibility (EPR) frameworks and the establishment of formal e-waste collection networks have further strengthened the recycling ecosystem, spurring investments in advanced processing technologies and infrastructure.

Technological innovation within the e-waste recycling sector is also a key catalyst for market growth. The development of sophisticated recycling processes, such as automated sorting, robotic disassembly, and chemical extraction techniques, has significantly enhanced the efficiency and profitability of material recovery. These advancements enable the extraction of precious metals, rare earth elements, and high-quality plastics from discarded electronics, reducing the reliance on virgin resources and supporting the circular economy. Furthermore, the integration of digital tracking systems and blockchain-based solutions is improving transparency and traceability throughout the e-waste value chain, fostering trust among stakeholders and ensuring compliance with regulatory standards.

From a regional perspective, Asia Pacific dominates the E-Waste Recycling Service market in terms of both volume and value, owing to its large population base, rapid industrialization, and high penetration of consumer electronics. Countries like China, India, and Japan are witnessing exponential growth in e-waste generation, driving demand for advanced recycling services and infrastructure. North America and Europe also represent significant markets, supported by robust regulatory frameworks and a strong emphasis on environmental sustainability. Meanwhile, emerging markets in Latin America and the Middle East & Africa are gradually ramping up their e-waste management capabilities, presenting new avenues for service providers and technology innovators.

Solid Waste: Average Expenditure per Capita per Year: Central West data was reported at 132.260 BRL in 2021. This records a decrease from the previous number of 137.620 BRL for 2020. Solid Waste: Average Expenditure per Capita per Year: Central West data is updated yearly, averaging 134.700 BRL from Dec 2019 (Median) to 2021, with 3 observations. The data reached an all-time high of 137.620 BRL in 2020 and a record low of 132.260 BRL in 2021. Solid Waste: Average Expenditure per Capita per Year: Central West data remains active status in CEIC and is reported by Ministry of Cities. The data is categorized under Brazil Premium Database’s Environmental, Social and Governance Sector – Table BR.EVE014: Solid Waste: Expenditure.

In the last decades, the amount of garbage being disposed in China has soared, reaching approximately ***** million tons as of 2023. During the outbreak of the COVID-19 pandemic in 2020, the annual amount of garbage had decreased to around *** million tons, declining for the first time in many years. However, this drop was only short-lived, and the amount of garbage disposed in 2021 already exceeded pre-pandemic levels. Pollution and waste in China Being the most populated country in the world with a constantly growing population and economy, China was faced with multiple problems. For example, the increasing vehicle traffic on roads and the low air quality, subsequently the trash volume as well. The issue is particularly severe in prosperous the urban areas, and not to mention the trash imported to China from the rest of the world, which was put to a halt in 2018. Historically, the Chinese garbage handling ideology was landfill, however, due to shortage of land around cities and secondary pollution caused by illegal dumping, especially in rural areas, the ratio of incineration has been increasing in recent years, despite the fact that incineration poses serious health problems to citizens by emitting various toxic by-products. Rise of environmental awareness in China Many of the developed countries in the west have already adopted a more comprehensive way of dealing with waste, emphasizing on reducing the amount of waste produced at the beginning, with attention also put on recycling useful waste. Under the “Made in China 2025” strategic plan, China is trying to follow suit. Fortunately, with the economic growth, the environmental awareness in China is also on the rise, with concern rising especially about disposable or non-recyclable products. Many also consider everyone is responsible to reduce plastic and packaging, including manufacturers, governments, vendors, as well as the consumers themselves. Individuals have also begun to enforce consumer power by buying products made from recycled material and boycotting products which are not and the vendors who sell a lot of such products, whereas other individual actions involved for protecting the environment were reusing of disposable items and paying extra.

Globally, an estimated 15 percent of plastic waste were collected for recycling in 2019. This amounted to roughly 55 million metric tons. Landfilling accounted for roughly half of plastic waste management that year, while 22 percent were mismanaged and littered. On average, OECD countries landfilled 53 percent of plastic waste, while for non-OECD countries that share stood at 46 percent. However, 37 percent of plastic waste in non-OECD countries were mismanaged and littered, compared to just six percent across OECD member countries. This is due to many developing countries lacking the capacity to deal with the large volumes of plastic waste generated. Mismanaged waste is one the biggest causes of plastic waste pollution. Asia accounts for 80 percent of global plastic waste emitted to the ocean.

The Global Waste Composting Machine Market size is expected to grow from USD 1.2 billion in 2021 to USD X.XX billion by 2028, at a CAGR of 7% during the forecast period. The major drivers for this growth include increasing demand for eco-friendly green solutions, growing awareness about climate change and its impact on the environment, increasing investments into recycling infrastructure projects across various sectors worldwide, and the need for reducing carbon footprints among other factors.

A Waste Composting Machine is any machine used for composting organic waste, which includes food and garden scraps. A Waste Composter can be operated by a homeowner or leased from a company that specializes in the delivery of such machines to large-scale developments. The most common types are batch and continuous methods of operation; Airtight Containers may be used for batch composting.

There are several types of Waste Composting Machines, including waste to compost machines converting organic waste into compost; the disposal of effluent through a water-permeable membrane and then separating it from solids using air filter; and energy production by burning combustible material.

On the basis of Type, the market is segmenetd into Waste to Compost Machine, Waste to Effluent Machine, and Waste to Energy (WTE) Machines.

Waste to Compost Machine :

This type of machine converts organic waste into compost, by using a rotating drum that collects the food scraps and other biodegradable material placed in it. The drum's heat helps decompose these scraps faster than they would decompose on their own. As this process happens, worms are used to help with the decomposition of the scraps because they eat only dead organic material.

Waste to Effluent Machine :

This type converts organic waste into effluent, by using a water-permeable membrane to separate it from solids. The liquid passes through the membrane and is then collected in a tank for continuous removal; while air filters help remove all particles larger than 0.02 micron in size for disposal or recycling.

Waste to Energy :

This machine converts organic waste into energy, by burning combustible material to produce electricity and heat that can be used for heating the building where it's housed; as well as to drive a generator that produces power for homes near it. The amount of renewable energy generated is proportional to the amount of organic waste matter that is converted into energy.

On the basis of Application, the market is segmented into Hotels & Lodges, Hospitals, Restaurants, Schools, etc.

Hotels & Lodges :

The hotel industry is one of the major contributors to the volume of municipal solid waste. The average occupancy level in hotels is up to 60% for an eight-hour day, which means there are at least three guests per room each using a toilet and creating other wastes that need disposal. If you include housekeeping staff who work on a daily basis, the average occupancy level is up to 80%.

Hospitals :

Hospitals generate a large amount of waste, which must be disposed of. Some hospital wastes are bio-medical and hazardous, so they require special handling procedures. Hospital staff often need help with this process to avoid potential problems. One way in which hospitals can reduce their disposal costs is through the use of composting machines for organic material such as food scraps and bedding.

Restaurants :

Restaurants generate a large amount of waste, which must be disposed of. The kitchen staff generates biodegradable food scraps and other wastes that can go to the composting machine for processing. Restaurants also have many kinds of organic materials including spoiled food, paper products like napkins or tableware, cardboard containers, and wood pallets.

School :

Schools generate large amounts of waste, which must be disposed of. Some school wastes are bio-medical and hazardous, so they require special handling procedures. School staff often need help with this process to avoid potential problems. One way in which schools can reduce their disposal costs is through the use of composting machines for organic material such as food scraps and bedding.

Community :

Community areas generate large amounts of waste, which must be disposed of. The type and volume depend on the geographic location. Some community wastes are bio-medical and hazardous, so they require special handling procedures. Community staff often need help wi

ESG DATA PRODUCT DESCRIPTION

Market-leading ESG dataset tracking corporate waste management performance across 4,000+ global companies. Our data provides granular breakdowns of hazardous and non-hazardous waste streams, alongside comprehensive coverage of disposal methods and recovery rates. Through rigorous standardization of waste categories and treatment methods, we enable precise cross-company comparisons and sectoral benchmarking.

ESG DATA PRODUCT CHARACTERISTICS

• Company Coverage:              4,000+ companies • Geographical Coverage:       Global • Sectorial Coverage:                All sectors • Data Historical Range:           2021 - 2024 • Median Data History:             2 years • Data Traceability Rate:           100% • Data Frequency:                     Annual • Average Reporting Lag:         3 months • Data Format:                            Most Recent/Point-in-Time

UNIQUE DATA VALUE PROPOSITION

Uncompromised Standardization

When company waste data do not align with standard waste reporting frameworks, our team of environmental engineers meticulously maps the reported data to the correct waste categories and disposal methods. This guarantees uniformity and comparability across our dataset, bridging the gap created by diverse reporting formats.

Precision in Every Figure

Our advanced cross-source data precision matching algorithm ensures that the most accurate data is always delivered. For instance, an exact figure like 1,542,450 tCO2e is prioritized over a rounded figure like 1,500,000 tCO2e, reflecting our dedication to precision and detail.

Accuracy in Every Metric

Our advanced cross-source data precision matching algorithm ensures that the most accurate data is always delivered. For instance, an exact figure like 15,245 metric tons of waste is prioritized over a rounded figure like 15,000 metric tons, reflecting our dedication to precision and detail.

Unbiased Data Integrity

Our approach is grounded in delivering waste data exactly as reported by companies, without making inferences or estimates for undisclosed data. This strict adherence to factual reporting ensures the integrity of the data you receive, providing an unaltered and accurate view of corporate waste management.

End-to-End Data Traceability

Every data point we provide is directly traceable to its original source, down to the page numbers and exact coordinates within source documents. This level of detail ensures you have access to the most reliable and verifiable waste data available, equipping you with data you can trust completely.

Full-Scope Boundary Verification

We tag waste figures that do not cover a company's entire organizational or operational boundaries with an 'Incomplete Boundaries' attribute. This attribute enhances transparency and ensures the comparability of our data by keeping you informed of any potential limitations.

USE CASES

Asset Management

Utilize waste management data for comprehensive portfolio management, including SFDR and TNFD compliance reporting, sustainability benchmarking, risk analysis, thematic investment strategies focused on circular economy, and stewardship activities. The data enables assessment of waste-related risks, identification of sustainability leaders, and supports engagement with portfolio companies.

Financial Institutions & Banking

Leverage waste data for credit risk assessment, green lending, environmental due diligence, regulatory compliance, and supply chain finance. The data supports evaluation of borrower operational efficiency, structuring of sustainability-linked products, and development of circular economy financing solutions.

FinTech

Develop technology solutions incorporating waste management data, including ESG analytics platforms, sustainability reporting solutions, supply chain analytics tools, impact measurement platforms, and sustainable investment apps for retail investors, enabling comprehensive assessment and monitoring of corporate waste performance.

GreenTech & ClimateTech

Use waste data to power circular economy solutions, waste management software, environmental compliance platforms, and sustainability management software, enabling optimization of waste operations, regulatory compliance monitoring, and comprehensive environmental performance tracking.

Corporates

Employ waste data for performance benchmarking against industry peers, supply chain optimization, sustainability reporting, and procurement strategy development, enabling data-driven decision-making in waste management and circular economy initiatives.

Professional Services & Consulting

Utilize waste data for industry research and benchmarking, ESG advisory services, sustainability strategy development, and regulatory compliance advisory, helping clients improve environmental performance and meet regulatory requirements.

Research & Academia

Analyze waste management data for enviro...

According to Cognitive Market Research, the global Automatic Plastic Recycling Market size will be USD 16251.8 million in 2025. It will expand at a compound annual growth rate (CAGR) of 8.60% from 2025 to 2033.

North America held the major market share for more than 37% of the global revenue with a market size of USD 6013.17 million in 2025 and will grow at a compound annual growth rate (CAGR) of 6.4% from 2025 to 2033.
Europe accounted for a market share of over 29% of the global revenue with a market size of USD 4713.02 million.
APAC held a market share of around 24% of the global revenue with a market size of USD 3900.43 million in 2025 and will grow at a compound annual growth rate (CAGR) of 10.6% from 2025 to 2033.
South America has a market share of more than 3.8% of the global revenue with a market size of USD 617.57 million in 2025 and will grow at a compound annual growth rate (CAGR) of 7.6% from 2025 to 2033.
Middle East had a market share of around 4% of the global revenue and was estimated at a market size of USD 650.07 million in 2025 and will grow at a compound annual growth rate (CAGR) of 7.9% from 2025 to 2033.
Africa had a market share of around 2.2% of the global revenue and was estimated at a market size of USD 357.54 million in 2025 and will grow at a compound annual growth rate (CAGR) of 8.3% from 2025 to 2033.
PET is the fastest growing segment of the Automatic Plastic Recycling Market industry

Market Dynamics of Automatic Plastic Recycling Market

Key Drivers for the Automatic Plastic Recycling Market

Rising Global Plastic Waste Generation Necessitating Efficient Recycling Solutions

One of the primary drivers for the automatic plastic recycling market is the escalating volume of global plastic waste. With over 400 million tons of plastic waste generated annually worldwide, there is an urgent need for efficient and scalable recycling systems. According to the OECD Outlook, nearly half of the world’s plastic waste is produced by OECD countries. On a per capita basis, the annual plastic waste generation ranges from 221 kg in the United States and 114 kg in European OECD nations to an average of 69 kg in Japan and Korea. Automatic plastic recycling technologies offer real-time sorting, cleaning, and processing of various plastic types, dramatically improving throughput and material purity. This shift toward automation helps overcome the inefficiencies and contamination issues typically associated with manual recycling processes. Furthermore, consumer and corporate demand for sustainable packaging and environmentally friendly products has put pressure on manufacturers to adopt closed-loop systems that support plastic circularity. The integration of AI, robotics, and optical sensors in automated facilities enables high-speed and accurate material classification contributing significantly to waste reduction efforts.

https://www.oecd.org/en/about/news/press-releases/2022/02/plastic-pollution-is-growing-relentlessly-as-waste-management-and-recycling-fall-short.html

Government Regulations Mandating Plastic Recycling and Reuse Targets

Governments around the world are enforcing stringent regulations and sustainability targets that directly support the adoption of automatic plastic recycling technologies. Policies such as the EU’s Circular Economy Action Plan and the U.S. Plastic Waste Reduction and Recycling Act aim to reduce landfill usage and encourage the reuse of plastic materials through improved recycling infrastructure. These regulatory measures often include mandates for minimum recycled content in packaging, extended producer responsibility (EPR), and financial incentives for waste management innovation. Automated recycling systems are especially suited to meet these regulatory goals, offering precision, scalability, and traceability in material recovery. Countries such as Germany, Japan, and Canada have implemented national strategies that incentivize technological upgrades in recycling facilities further accelerating market growth for automated solutions.

Restraint Factor for the Automatic Plastic Recycling Market

High Initial Capital Investment for Automated Recycling Infrastructure

Despite its long-term benefits, the adoption of automatic plastic recycling is often hindered by the high upfront capital costs required to establish and scale these systems. Setting up an automated facility involves significant expenditures for a...