#biosolids market

[researchinsights]

The global biosolids market size was valued at USD 2,321.8 million in 2023 and is poised to grow at a significant CAGR of 4.9% during the forecast period 2024-30. It also includes market size and projection estimations for each of the five major regions from 2024 to 2030.

[futuretonext]

The Middle East Biosolids Market is projected to grow at a CAGR of around 6% during the forecast period, i.e., 2022-27. The majority of the market expansion would be backed by the mounting public awareness about the benefits of biosolids, i.e., portraying their mounting utilization in different applications like agricultural, forest crop, land reclamation, landscaping, recreational fields, heat generation, incineration & gasification, oil & cement production, domestic & commercial uses, etc.

[plethoraworldatlas]

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What Are Biosolids?

“Biosolids” is the word waste treatment industry marketers came up with to rebrand sewage sludge, the solid byproduct of wastewater treatment processes. The reason the industry needed to rebrand sewage sludge was because they planned on marketing and selling the nutrient-rich waste to farmers and home gardeners as cheap fertilizer and compost products.

But biosolids aren’t just rich in nutrients. Biosolids can contain high levels of toxic PFAS “Forever Chemicals” (perfluoroalkyl and polyfluoroalkyl substances) that aren’t removed during the waste treatment process. And neither are the phthalates, pesticides, PCBs, antibiotics and other pharmaceuticals, microplastics, heavy metals, and innumerable other harmful substances that have been found in biosolids.

Applications of biosolids contaminate the soil with toxic PFAS and other chemicals, which are then taken up by crops grown in that soil. PFAS also migrates to contaminate groundwater and surface waters. The meat, milk and eggs of livestock become contaminated when the animals consume adulterated crops and water.

The biosolids industry and the commercial fertilizer and compost companies that use biosolids continue to claim that the products are safe and non-toxic. Even municipalities have been giving out biosolids fertilizer and compost to farmers, community gardens, and home gardeners for free, without warning about the dangers.

Unfortunately, the Environmental Protection Agency (EPA), though aware of the problem, still allows the commercialization of toxic biosolids. Just as alarming, the U.S. Department of Agriculture (USDA) actively promotes the use of biosolids as fertilizer to commercial farmers. We suspect this is due to the revolving door and corporate capture of our regulatory agencies and the resulting collusion, favoring corporate profits over human or environmental health.

In 2022, Sally Brown, Research Professor at the University of Washington and veteran biosolids industry lobbyist, was selected by USDA Secretary Tom Vilsack to serve on USDA’s inaugural Advisory Committee for Urban Agriculture.

Sally Brown once called environmental activists “ecoterrorists” for a successful protest on March 4, 2010, that stopped the San Francisco Public Utilities Commission from giving away sewage sludge as “organic biosolids compost” for home and school gardens.

As you’ll soon read, it’s Sally Brown that is the ecoterrorist for promoting biosolids.

Biosolids Poisoning Farms and Farmers Across America

The practice of using biosolids as fertilizer on conventional farms has been happening for decades but has, more recently, turned into a national catastrophe, creating a crisis for farmers and ranchers across the country.

Although the use of biosolids as fertilizer is prohibited in organic agriculture, even organic farms have been hit hard.

March 22, 2022, The Guardian reported:

Maine organic farmers Johanna Davis and Adam Nordell bought Songbird Farm in 2014. By 2021 the young family with their three-year-old son were hitting their stride, Nordell said. But disaster struck in December. The couple learned the farm’s previous owner had decades earlier used PFAS-tainted sewage sludge, or “biosolids”, as fertilizer on Songbird’s fields. Testing revealed their soil, drinking water, irrigation water, crops, chickens and blood were contaminated with high levels of the toxic chemicals. The couple quickly recalled products, alerted customers, suspended their operation and have been left deeply fearful for their financial and physical wellbeing. “This has flipped everything about our lives on its head,” Nordell said. “We haven’t done a blood test on our kid yet and that’s the most terrifying part. It’s f#####g devastating.” Ironwood Organic Farm, about six miles from Songbird Farm, tested its water and found high levels suspected to have migrated from a neighbors’ sludge-packed field. The small produce farm pulled its products, halted operations and is nervously awaiting more test results. “I spent my entire adult life building this farm,” said Nell Finnigan. “Everything is at stake for us, and this is a tragedy for anyone who comes up with a high [groundwater] well test.” Stoneridge Farm, a small dairy operation more than 100 miles south of Songbird Farm, discovered in 2016 that sludge and paper mill waste used as fertilizer had probably contaminated its cows and milk. Stoneridge killed most of its livestock in 2019. Co-owner Fred Stone was denied federal assistance for his tainted milk because one of its milk tests came in just below the state’s limit, but Stone didn’t feel comfortable selling it. Now his family of four, which believes PFAS is behind their health ailments from thyroid disease to reproductive problems, survives on welfare and friends’ and family’s generosity. Stone said he could have continued to sell contaminated food: “This is the cost of having a moral compass and doing the right thing.” “I don’t know how we are going to get debts paid,” he added. “I don’t know how the Christ we are going to live. I don’t know how we’re going to survive.”

...

March 11, 2024, KCUR reported:

“This is a hundred-year-old operation,” Jason Grostic said. “My grandpa milked cows, my dad milked cows, I milked cows, (then) got into the beef industry. It’s in my blood.” But Grostic may be at the end of the line. Two years ago, he was blindsided when the state of Michigan ordered him to shut down his farm, citing high levels of PFAS in both his beef and soil. Grostic had been using biosolids, a treated byproduct from wastewater plants, to fertilize his crops, which he then fed his cattle. But what he thought was a cost-effective fertilizer, turned out to be laden with PFAS. It’s a risk, Grostic said, no one warned him about — and now his 400-acre farm has been deemed unusable. “I took a fertilizer source that was recommended and was EPA-approved, and the government dropped the ball by not testing it and assuring it was a clean product,” he said.

We encourage you to watch the VICE Special Report, “The Hidden Chemicals Destroying American Farms,” a year long investigation featuring Jason Grostic and his experience with biosolids and PFAS. It will shock you.

[supriyab]

Agricultural Testing Market Trends, Size, Share, Growth Opportunities, and forecast 2028

The global agricultural testing market is projected to reach USD 9.8 billion by 2028 from USD 6.7 billion by 2023, at a CAGR of 7.1% during the forecast period in terms of value. The agricultural testing market encompasses the industry dedicated to analysing various agricultural products such as soil, water, compost, biosolids, manure, and seeds to assess their quality, composition, and contaminant levels. This testing is essential for ensuring food safety, optimizing crop production, and maintaining environmental sustainability within the agriculture sector. As the global population grows and concerns about foodborne illnesses increase, there is a heightened focus on ensuring the safety and quality of agricultural products. Agricultural testing helps identify contaminants, pesticides, heavy metals, and pathogens, enabling proactive measures to uphold food safety standards. Advances in testing methods and technologies, including remote sensing, DNA testing, and rapid diagnostic techniques, have enhanced the efficiency and accuracy of agricultural testing, streamlined the process and reducing turnaround times.

Agricultural Testing Market Driver: Stringent safety and quality regulations for agricultural commodities

Stringent safety and quality regulations for agricultural commodities are the rules and standards established by regulatory bodies and governments to ensure that agricultural products adhere to specific safety and quality criteria. These regulations aim to protect public health, prevent the spread of diseases, and maintain the overall quality of agricultural products. The agriculture testing market is driven by the necessity to comply with these regulations. Agricultural producers, processors, and exporters must demonstrate that their products meet the established safety and quality standards before they can be sold in domestic or international markets. This requirement generates a demand for agriculture testing services, fueling the growth of the agriculture testing market.

Agricultural Testing Market Opportunities: Technological advancements in the testing industry

The focus on reducing lead time, sample utilization, cost of testing, and drawbacks associated with several technologies has resulted in the development of new technologies such as spectrometry and chromatography. Increased adoption of these technologies is an opportunity for medium- and small-scale laboratories to expand their service offerings and compete with large market players in the industry, as these technologies offer higher sensitivity, accuracy in results, reliability, and multi-contaminant and non-targeted screening with low turnaround time, among other benefits.

The agricultural testing industry is experiencing technological innovations as major players are offering faster and more accurate technologies such as liquid chromatography (LC), high-performance liquid chromatography (HPLC), and inductively coupled plasma mass spectrometry (ICP-MS) for testing the safety and quality of various agricultural samples. These methods are used in the detection of almost all targets to be tested, including pathogens, pesticides, toxins, and heavy metals, among others. One company that has made significant advancements in this area is AgroCares. In 2019, AgroCares launched the AgroCares Scanner, a handheld device that can analyze soil and crop samples on-site, providing real-time nutrient measurements. The device uses near-infrared spectroscopy to assess nutrient levels in the samples, eliminating the need for laboratory testing and reducing the time required to get results. Also, in 2021, the company Purigen Biosystems announced the launch of its new automated DNA extraction system, which is designed to help researchers and testing labs quickly and efficiently extract DNA from complex samples, including those from plants and other agricultural sources. The system uses a proprietary microfluidic technology to isolate and purify DNA and can process up to 96 samples at a time. Also in 2021, the company Eurofins announced the launch of its new "AgroSeq" DNA testing service, which is designed to help agricultural companies and researchers quickly and accurately identify and track genetic traits in crops and livestock. The service uses high-throughput sequencing technology to analyze DNA samples and provide detailed information about genetic variation, which can be used to improve breeding programs, monitor food safety, and more.

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By application, safety testing is projected to have fastest growing rate during the forecast period.

Products are governed by various national and international regulations, standards, and guidelines. To comply with these regulations and ensure that products meet the specified safety criteria, safety testing is essential. Non-compliance can lead to product recalls, legal issues, reputational damage, and loss of market access. By conducting safety testing, agricultural businesses demonstrate their commitment to regulatory compliance and the provision of safe products to consumers.

Since agricultural products are frequently traded internationally, they must meet the safety standards and import regulations of different countries. Exporting agricultural products necessitates compliance with the safety requirements of the destination market. Safety testing ensures that products meet these standards, helping to avoid trade barriers or rejections. Exporters must provide evidence of safety testing to prove their products' suitability for international markets.

Asia Pacific is expected to have the fastest growing rate during the forecast period.

The Asia-Pacific region is home to a significant portion of the global population, including countries like China and India, which have the world's largest populations. This densely populated region requires extensive agricultural production to meet the growing food demand. As a result, there is a greater need for agricultural testing to ensure the safety, quality, and productivity of agricultural products. The Asia-Pacific region has experienced rapid industrialization and urbanization, leading to increased pollution and pressure on agricultural lands. This has raised concerns about the impact of industrial activities and urban expansion on agricultural productivity and safety. Agricultural testing helps identify and mitigate potential contamination risks, ensuring the safety and sustainability of agricultural practices in the face of urban development.

Top Companies in the Agricultural Testing Market

The key players covered in the study include SGS (Switzerland), Eurofins (Luxembourg), Intertek (UK), Bureau Veritas (France), ALS Limited (Australia), TUV Nord Group (Germany), Merieux (US), AsureQuality (New Zealand), RJ Hill Laboratories Limited (New Zealand), SCS Global (US), Agrifood Technology (Australia), APAL Agricultural Laboratory (Australia), Agvise Laboratories (US), LGC Limited (UK) and Water Agricultural Laboratories (US).

[ananya5400]

Agricultural Testing Market Growth Rate, Analysis Status, Outlook And Forecast

The agricultural testing market is projected to reach USD 9.8 billion by 2028 from USD 6.7 billion by 2023, at a CAGR of 7.1% during the forecast period in terms of value. The agricultural testing market refers to the industry involved in analyzing various agricultural products, such as soil, water, compost, biosolids, manure and seeds, to determine their quality, composition, and presence of contaminants. This type of testing is crucial for ensuring food safety, optimizing crop production, and maintaining environmental sustainability in the agriculture sector. With the growing global population and rising concerns about foodborne illnesses, there is a greater emphasis on ensuring the safety and quality of agricultural products. Testing helps identifying contaminants, pesticides, heavy metals, and pathogens, enabling proactive measures to be taken to maintain food safety standards. The development of advanced testing methods and technologies has improved the efficiency and accuracy of agricultural testing. These advancements include the use of remote sensing, DNA testing, and rapid diagnostic techniques, which have streamlined the testing process and reduced turnaround times.

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Opportunity: Technological advancements in the testing industry

The focus on reducing lead time, sample utilization, cost of testing, and drawbacks associated with several technologies has resulted in the development of new technologies such as spectrometry and chromatography. Increased adoption of these technologies is an opportunity for medium- and small-scale laboratories to expand their service offerings and compete with large market players in the industry, as these technologies offer higher sensitivity, accuracy in results, reliability, and multi-contaminant and non-targeted screening with low turnaround time, among other benefits.

By application, safety testing is projected to have fastest growing rate during the forecast period.

products are subject to various national and international regulations, standards, and guidelines. Safety testing is necessary to comply with these regulations and ensure that products meet the specified safety criteria. Non-compliance can result in product recalls, legal consequences, damage to reputation, and loss of market access. By conducting safety testing, agricultural businesses can demonstrate their commitment to meeting regulatory requirements and providing safe products to consumers. Also, agricultural products are often traded internationally, and different countries have specific safety standards and import regulations. Exporting agricultural products requires compliance with the safety requirements of the destination market. Safety testing is necessary to ensure that products meet these standards and avoid potential trade barriers or rejections. Exporters must provide evidence of safety testing to demonstrate the suitability of their products for international markets.

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Asia Pacific is expected to have the fastest growing rate during the forecast period.

The Asia-Pacific region is home to a significant portion of the global population, including countries like China and India, which have the world's largest populations. This densely populated region requires extensive agricultural production to meet the growing food demand. As a result, there is a greater need for agricultural testing to ensure the safety, quality, and productivity of agricultural products. The Asia-Pacific region has experienced rapid industrialization and urbanization, leading to increased pollution and pressure on agricultural lands. This has raised concerns about the impact of industrial activities and urban expansion on agricultural productivity and safety. Agricultural testing helps identify and mitigate potential contamination risks, ensuring the safety and sustainability of agricultural practices in the face of urban development.

[sustainabilitybyarlette]

Bonita Springs Water Reclamation Facility

Photo taken by me.

The Bonita Springs East Water Reclamation Facility is a wastewater treatment plant that is leading its industry in sustainable practices. Up to 4 million gallons of sewage are processed at this facility every day, and the sewage is turned into new products that are sold to generate revenue for the plant. The process begins when water from drains all around the Bonita Springs area reaches the water reclamation facility through underground pipes. Large materials are removed from the water using a coarse drum screen before it reaches the equalization tank. The equalization tank serves the purpose of treating the sewage at a continuous rate as well as aerating the sewage to reduce malodors. The sewage is then moved through a finer drum screen to remove smaller solids, which are taken to a landfill. Next is the denitrification stage, which occurs inside the anoxic basin. The book “Sustainability Principles and Practice” explains that “some anaerobic bacteria can metabolize some kinds of contaminants that cannot be broken down by aerobic bacteria (Alexander 1999, 369). It is anaerobes who digest food in animal digestive tracts, sewage in wastewater treatment tanks, and buried matter in landfills” (Robertson, 2021, pp. 190-191). Indeed, anaerobic microorganisms are used at the wastewater treatment plant to consume any organic material in the sewage. From the anoxic basin, the water moves into the aerobic basin, where microorganisms use the oxygen in the basin for energy to convert ammonia in the sewage into nitrate and nitrite ions. Next, the water moves through Veolia membranes, which are long fibers with microscopic pores that filter all impurities out of the water. The next steps in the process turn the reclaimed water into products that are profitable for the facility.

Photo taken by me.

According to the textbook, “One industrial ecology strategy sets up closed-loop “food webs” among industries, where output from one industry is input for another and materials are reused. These networks of exchanges are sometimes referred to as industrial symbiosis or industrial metabolism. A complex of industrial facilities that applies these principles in an industrial ecosystem is referred to as an eco-industrial park” (Robertson, 2021, p. 344). The Bonita Springs East Water Reclamation Facility is a great example of a chain in one of these eco-industrial parks. After passing through the membrane basins, the remaining biosolids in the wastewater are mixed with polymers, thickened, and heated, evaporating the remaining water and turning the biosolids into small pellets. These pellets are marketed as fertilizer and make money for the wastewater treatment plant. The recovered water is disinfected using sodium hypochlorite and sent to a water pump station, where it is sold as irrigation water to businesses such as golf courses. Wastewater facilities like this one face many challenges, including excessive amounts of nutrients like nitrogen and phosphorus, limiting the energy used by the plant to run its operations, and limiting the release of endocrine disruptors into the environment. Despite these challenges, the Bonita Springs East Water Reclamation Facility has found a sustainable way to turn “waste” into profitable products that are in high demand by other industries.

Photo taken by me.

References:

Robertson, M. (2021). Sustainability Principles and Practice (3rd ed.). Taylor & Francis Group.

[markettrendsus]

Water and Wastewater Treatment Equipment Market: Financial Outlook, Investments, and Financing Trends 2023

The water and wastewater treatment equipment market has seen rapid growth in recent years driven by increasing global demand for clean water, more stringent regulations, and technological advancements. This market is poised for continued expansion as communities and industries seek to upgrade aging infrastructure and invest in innovative new systems.

The Global Water and Wastewater Treatment Equipment Market is expected to attain a value of USD 69.9 billion in 2023 and is anticipated to grow with a CAGR of 4.9% for the forecast period (2023-2032).

An Overview of the Water and Wastewater Treatment Industry

The water and wastewater treatment industry is vital in providing clean and safe water for drinking, agriculture, industry, recreation, and more. This sector involves complex processes to remove contaminants from water and wastewater before discharge into the environment.

Companies in this industry manufacture specialized equipment like pumps, valves, filters, membranes, disinfectants, and control systems. They also provide critical services such as system design, engineering, construction, operations, and maintenance. The water and wastewater treatment equipment market includes both municipal and industrial customers.

Key drivers of growth in this industry are:

Increasing global population and water scarcity

Aging water infrastructure in developed nations

Stringent governmental regulations on water quality and wastewater discharge

Industrialization and increased manufacturing activity

Technological improvements enabling more efficient systems

Increased environmental awareness and sustainability initiatives

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Key Equipment and Technology Segments

The water and wastewater treatment equipment market can be divided into several key technology and equipment segments:

Pumps and valves control the flow of liquids through treatment systems

Filtration systems remove solids through technologies like sand filtration, microfiltration, and reverse osmosis

Disinfection systems inactivate disease-causing microorganisms and can use chlorine, UV light, or ozone

Sludge treatment reduces volume and allows for biosolids reuse through processes like digestion, dewatering, and drying

Instrumentation includes sensors, analyzers, SCADA, and control systems to monitor and automate processes

Chemical dosing systems deliver coagulants, disinfectants, pH adjusters, and other process chemicals

Membrane systems use ultrafiltration, nanofiltration, and reverse osmosis to filter contaminants

Screening systems remove large debris and solids at intake points

Market Segmentation

By Equipment

Primary Treatment

Primary Clarifier

Sludge Removal

Grit Removal

Pre-Treatment

Others

Secondary Treatment

Activated Sludge

Sludge Treatment

Others

Tertiary Treatment

Tertiary Clarifier

Filters

Chlorination systems

Others

By Application

Industrial

Municipal

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Key Factors Driving Market Growth

Several important factors are contributing to the continued growth and opportunities in the global water and wastewater treatment equipment market:

Increasing Population and Water Scarcity Issues

The world's population is expected to reach 8.5 billion by 2030, intensifying demand for freshwater and wastewater treatment in both developing and developed countries. Water scarcity already affects over 1.7 billion people globally. These trends will drive infrastructure and technology investments to access new water sources and maximize reuse.

Aging Infrastructure in Developed Nations

Many drinking water and sewage systems in the U.S., Europe, and Japan are approaching or exceeding their design lifespans. Upgrading outdated equipment and pipes to meet stricter regulations will be a major market driver. The EPA estimates over $400 billion is needed to maintain and improve U.S. drinking water infrastructure over the next 20 years.

Stringent Government Regulations

Tightening regulations worldwide for safe drinking water and proper wastewater disposal require upgrades to treatment methods and systems. For example, the U.S. Clean Water Act has set higher standards for allowable wastewater discharge levels that require added treatment capacities.

Increased Industrial Water Usage

Rapid industrialization in developing nations is expanding the number of manufacturing plants which require process water treatment and wastewater management. The power industry is another major sector demanding advanced water and wastewater treatment.

Water Reuse Opportunities

As freshwater supplies become scarcer, reuse of treated wastewater is growing. Equipment that can cost-effectively treat wastewater to potable standards is a promising new market segment. Industries are also increasing on-site water reuse with closed loop recycling systems to lower costs and improve sustainability.

Advances in Treatment Technologies

New membrane materials, UV and ozone disinfection methods, automation, and data analytics are enhancing treatment efficiencies. Companies are developing smarter systems controlled with artificial intelligence, remote sensors, and software to optimize operations and lower energy use. These technologies provide sales opportunities as customers upgrade systems.

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Regional Outlook

The Asia Pacific region dominates the water and wastewater treatment equipment market in 2023 with a maximum share of 35.9%. This region is anticipated to further lead the market with a high compound annual growth rate by 2032. This growth is majorly driven by the rising consciousness among customers & various sectors regarding the benefit of conservation of water & protection of the environment in the Asia-Pacific region. As a result, the need & desire for water & wastewater treatment equipment is observing a substantial rise.

Leading Corporations Driving the Market

Pentair plc.

Ecolab Inc.

Xylem Inc.

Evoqua Water Technologies LLC

DuPont

Aquatech International LLC

Veolia Group

Evonik Industries AG

Calgon Carbon Corporation

Toshiba Water Solutions Private Limited

Lenntech B.V.

Other

Key Industry Challenges

While the future looks bright overall for the water and wastewater treatment equipment market, there are some persistent challenges:

High Capital Costs - Constructing modern water and wastewater plants requires major capital investments that can be prohibitive for smaller municipalities and companies. Obtaining financing and government support are crucial for many projects.

Increasing Energy Usage - More advanced treatment systems generally consume greater amounts of energy. Optimizing processes to minimize energy requirements is an ongoing focus area.

Waste Disposal Issues - Disposing of landfill waste and brines from membrane systems is becoming more difficult and costly due to regulations. Further treatment of residuals is often needed.

Lack of Trained Operators - The skilled labor needed to properly operate and maintain complex new treatment systems is lacking in some regions, especially developing countries. Better training programs are essential.

Lagging Infrastructure in Developing Nations - Many developing countries still lack basic water and wastewater infrastructure. This hampers industrial growth and public health. Financing these massive investments remains a hurdle.

Climate Change Resiliency - Making water and wastewater infrastructure more resilient to droughts, floods, and other climate change effects represents a new challenge for the sector.

Addressing these issues will be instrumental as communities work to upgrade critical water and wastewater treatment infrastructure worldwide. Technologies and designs that minimize costs and energy while maximizing reliability will be favored.

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Water Treatment Equipment - Future Innovations

Engineering and technology innovations in the water treatment equipment market aim to lower costs, improve efficiencies, and expand treatment capabilities. Some key areas for future innovations include:

Hybrid membrane systems - Combining two or more membrane technologies like ultrafiltration and reverse osmosis can optimize contaminant removal and lower fouling issues.

New antifouling materials - Membrane fouling costs the industry billions annually. New nanotech and biomimetic membrane materials resist fouling better for longer membrane life.

Improved oxidation methods - Ozone, UV, and other oxidation processes minimize chemical use but have high energy demands. New catalytic oxidation methods are being developed.

** Biosorption adsorbents** - Low-cost biosorbents derived from chitosan, cellulose, algae and other renewable sources can replace activated carbon for some applications.

Mobile and modular plants - Containerized and skid-mounted systems allow for cost-effective water treatment in remote locations and decentralized facilities.

Automation and AI - Expanding real-time sensing, system controls, machine learning, and artificial intelligence improve plant performance, minimize costs, and reduce staffing needs.

Renewable energy integration - On-site renewable energy such as solar, wind, and biogas integration can offset plant energy demands to lower costs and emissions.

Improved remote monitoring - Drone and satellite data, inexpensive sensors, and cloud-based solutions help monitor source water conditions and assets across remote distribution networks.

These emerging technologies will alter the future competitive landscape as companies integrate more advanced capabilities into new equipment and services.

Outlook for Water Reuse Systems

Growing water scarcity globally is driving greater adoption of water reuse technologies allowing treated wastewater to be safely reused for irrigation, industry, potable supplies, groundwater recharge and more. The equipment market for water reuse is estimated to grow 10% yearly over the next decade, reaching over $30 billion by 2030.

Some key trends shaping technology developments in this area include:

Equipment allowing direct potable reuse with multiple treatment barriers such as membrane bioreactors, reverse osmosis, UV disinfection, and advanced oxidation.

More cost-effective and compact systems for on-site greywater reuse and rainwater harvesting.

Improved real-time sensors, automation, and data analytics for smarter operation and control of reuse systems.

New selective membranes and absorbers to remove trace contaminants and salts from reused water cost-effectively.

Hybrid centralized decentralized facilities combine large-scale reuse with localized satellite plants.

Concentrate treatment and zero liquid discharge systems to maximize recovery and minimize waste volumes.

Public outreach and regulatory initiatives to increase acceptance and expand allowable applications of reused water.

With water reuse often the most reliable and cost-effective new supply option, this sector provides excellent opportunities but also requires overcoming public perceptions and regulatory hurdles.

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Key Takeaways and Market Outlook

Global demand for water and wastewater treatment equipment is forecast for steady long-term growth, driven by population increases, aging infrastructure, stringent regulations, industrialization, and water scarcity issues.

Municipal drinking water and sewage treatment represent major market segments, especially in developed nations.

Rapid urbanization and water-intensive industries will drive faster growth in developing regions like China, Southeast Asia, and Africa.

Leading multinational firms hold advantages in R&D and integrated treatment systems, but niche players still thrive in specialty segments.

Reuse equipment is an emerging high-growth segment as communities increasingly adopt recycled wastewater systems.

Technological improvements and innovative new equipment will be critical for minimizing costs while meeting tougher treatment standards.

In closing, the water and wastewater treatment equipment market offers tremendous business opportunities on a global scale for companies at the forefront of developing cost-effective, reliable and high-performance systems. With clean water scarcity being one of the defining challenges of the 21st century, the importance and growth prospects in this industry remain strong.

Frequently Asked Questions

What are the main segments in the water and wastewater treatment equipment market?

The main segments are pumps, valves, filters, membrane systems, disinfection equipment, instrumentation and controls, sludge treatment systems, and chemical dosing and feeding technologies. Municipal drinking water and wastewater plants represent the largest market segment, followed by industrial process water and wastewater treatment.

What regions offer the best growth opportunities?

Developing countries in Asia, Africa, and Latin America have the greatest growth potential due to high population growth, rapid urbanization, and industrial expansion driving massive new investments in water and wastewater infrastructure.

What are the new technological trends in this market?

Top trends are automation, remote monitoring and control, AI-enabled smart systems, renewable energy integration, advanced membranes and filtration media, improved oxidation processes, and mobile/modular equipment. Reuse systems are also an important emerging segment.

What factors affect market competition and pricing?

Competitive factors include product differences, custom engineering capabilities, R&D investments, manufacturing costs, regional market presence, and service/support infrastructures. Pricing is also strongly influenced by raw materials and energy pricing fluctuations.

What are the main industry challenges ahead?

Challenges include aging infrastructure, high upgrade/expansion costs, increasing energy demands, climate change resiliency, lack of technical skills, and financing struggles in developing countries. Managing residuals and brines and improving public perceptions of reused water are also issues.

What role will technology and innovation play in future growth?

New technology development is essential for minimizing costs, energy and chemical use, waste volumes, and environmental impacts while maximizing reliability, reuse potential, and operational simplicity. Companies at the forefront of the latest advances will gain competitive advantages.

How big is the global water equipment market projected to be by 2025?

The Global Water and Wastewater Treatment Equipment Market is expected to attain a value of USD 69.9 billion in 2023 and is anticipated to grow with a CAGR of 4.9% for the forecast period (2023-2032). The fastest growth will be in developing countries undergoing rapid urbanization and industrialization.

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Conclusion

The water and wastewater treatment equipment market is poised for steady growth in the coming decades driven by fundamental global trends of population growth, water scarcity, environmental regulations, aging infrastructure, and socioeconomic development. While expansions in developing nations represent major opportunities, replacement and upgrades of aging plants and distribution systems in developed countries also contribute significantly to market size.

Technological innovation and expertise will be key differentiators as companies compete to deliver more efficient, reliable, and cost-effective treatment solutions. Leaders able to leverage the latest advances in membrane systems, filtration media, UV disinfection, oxidation processes, automation, remote monitoring, and data analytics will be well-positioned. The market also presents opportunities to apply reuse systems and decentralized solutions for water-stressed regions.

Overall, the future remains bright for companies participating in this essential industry, although challenges like high costs, energy demands, and environmental constraints must continually be overcome. By providing clean water supply and wastewater treatment solutions, companies in this sector make invaluable contributions worldwide to public health, economic prosperity, and environmental sustainability.

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[fairfieldmarketreports]

Mexico Biosolids Market Growth and Share 2021-2025 [ 2023 UPDATE Available – Forecast 2023-2030*]

The global biosolids market is witnessing exponential growth as it offers an effective solution for reusing waste material and addressing the challenges of wastewater treatment. According to recent statistics, the market was valued at US$1.4 billion in 2018 and is projected to reach US$1.9 billion by 2025, growing at a healthy rate of 4.7% between 2021 and 2025.

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With over 35 million tonnes of biosolids produced globally in 2018, this industry is gaining momentum worldwide.

In 2018, Europe accounted for more than 25% of the global biosolids consumption, while the United States emerged as the largest producer in North America, primarily utilizing biosolids for land application. However, countries in the Asia Pacific region, such as China and India, are making significant investments in sludge management strategies and exploring alternative treatment and disposal methods to mitigate the adverse environmental impact. As a result, China is expected to surpass North America in the near future, supported by its substantial investments in wastewater treatment technologies.

Biosolids are organic materials derived from the treatment of domestic and industrial sewage sludge. They offer a valuable resource for agriculture as wastewater sewage contains nutrients that can be used for agricultural purposes. Class A and Class A (EQ) biosolids, which are pathogen-free and meet stringent standards set by regulatory bodies, are gaining popularity among customers. It is estimated that together they will account for more than 50% of the total biosolids market by the end of the forecast period.

Agriculture constitutes the largest application segment for biosolids, accounting for over 60% of the market in 2018. Biosolids are rich in micro and macro nutrients, making them an excellent source of fertilizers, soil replacement products, and soil conditioners. Additionally, biosolids find applications in forestry and landscaping, land reclamation, construction materials, and heat generation.

Governments around the world are actively supporting biosolids management programs as part of the circular economy. Strict regulations on wastewater and waste disposal, along with the phasing out of landfilling and incineration, are driving the demand for biosolids. Recycling biosolids into agriculture offers benefits such as carbon recycling and the nourishment of vegetation for CO2 capture. The United Kingdom government and the European Union recognize the recycling of biosolids into agriculture as the best environmental option.

Despite the numerous benefits of biosolids, challenges persist in terms of malodour and effective management. Odor issues have created negative publicity in recent years, necessitating public support and awareness to ensure the success of biosolids programs. Furthermore, transportation costs and capital limitations for new plants pose challenges to market growth.

Leading companies in the global biosolids market, including Cleanaway, SUEZ, Veolia, and Thames Water, have integrated their business operations and are offering comprehensive solutions in their respective regions. These companies are also exploring partnerships with fertilizer companies to develop new application avenues. The industry is witnessing the emergence of disruptive technologies, with companies like Aries Clean Energy receiving approvals for large-scale biosolids gasification plants, which convert waste into renewable energy and biochar.

As the global biosolids market continues to grow, it is evident that this industry offers an effective and sustainable solution for reusing waste material. By harnessing the potential of biosolids, we can address the challenges of wastewater treatment, reduce dependency on commercial fertilizers, and promote a circular economy.

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Obtaining The Most effective out of Dewatering Tools

Has the Dewatering Effectiveness Declined over time?

Sludge Dewatering and thickening is Among the most common procedures in H2o and Wastewater procedure plants. Belt presses, gravity tables and centrifuges are the same old machines merchandise used. In the situation of belt presses and gravity tables, the simplicity with the products can lull operators and upkeep personnel into a gradual means of letting the devices and options to deteriorate.

A modern study of press installations ranging in age from three to 18 many years has proven that many are increasingly being operated at 10 to thirty% below the first style and design capacity. There are plenty of motives, but usually lessened functionality seems for being because of a mix of factors, like staff turnover, servicing and acquiring selections, as well as a want to decrease the length of time invested adjusting the tools.

A de-tuned method could be more stable, and can tolerate far more variability within the feed problems. Additional obtainable plant potential can also inspire this approach.

General performance elements

In restoring functionality there are two procedure aspects to take into consideration. The first is the fact that sludge dewatering is actually a blended Actual physical /chemical strategy of flocculation, accompanied by a 2nd system, the mechanical stage of the actual dewatering. Efficient operation of both equally ways is important for effective dewatering.

Flocculation

Flocculation of sludges depends strongly on the character of your sludge. Throughout initial

commissioning the machines provider along with the flocculant supplier will normally

do the job alongside one another to pick out the most effective flocculation regime. This features don't just the

alternative of the right flocculant (normally a cationic polymer), but additionally the indicates

of dosing and mixing, as well as the dosage amount. If, in excess of successive many years,

the cure course of action, or even the cure plant influent, changes, these options

might require to be revisited. The dosing options, for instance closing dilution and

mixing changes also must be modified, and these configurations could be very important

to superior general performance.

Flocculant suppliers have an on-likely source of profits from the sale of

chemical compounds, and so are generally the key source of information and repair in

this regard. Nevertheless, They could not have an in-depth knowledge of the mechanical

products changes required to match The brand new circumstances. Moreover, they

Have got a vested curiosity in advertising and marketing their particular items.

The polymer flocculant is the center and soul of the biosolids dewatering

procedure. Whilst doctorate theses abound regarding the functionality and collection

of the proper polymer for an application, the truth is it is a trial and error approach,

with luck and ability associated.

​Commercial Aspects

A typical challenge is H2o Authorities with more than one treatment method plant applying polymer flocculants contacting for tenders for offer of polymer flocculants for your range apps in a single massive agreement. This performs from choosing the right polymer for each application, as occasionally 1 suppliers’ polymer variety will not fit each individual circumstance.

​Due to this technique, It's not at all uncommon to locate poor accomplishing polymers being used, with corresponding decreased dewatering performance of your products. This policy also brings about a flurry of screening exercise at tender time, followed by a lengthy period of time in the course of which the polymer provider focuses his interest in other places.

​A serious occasional issue is often a planet –wide lack of raw resources, which has enhances the value, and alternatively encourages polymer producers to decrease the active information per kilogram of chemical.

​Mechanical Troubles

Along with the method concerns you will discover mechanical upkeep difficulties. Belt presses, like a car or truck, have wear elements which should get replaced, and also demanding occasional adjustment. The principle don parts will be the filter belts, cake scraper “health care provider’ blades, and also the seals to the belt spray wash bins and aspect skirts, as well as spray nozzles.

​Filter Belts

The filter belts Have got a direct impact on the process overall performance, and also the aspect skirt seals can influence course of action general performance. Unfortunately many organizations leave the purchasing of these spares to procurement departments or mechanical maintenance staff, who may purchase purely on apparent price, and the procedure general performance can go through for a consequence.

​The selection of the best filter belt is really a compromise in between an open up weave to really encourage drainage, the necessity to help the cake and lessen losses with the fabric, and the opportunity to wash the belt cleanse. Belt washing might be vital, along with a worn h2o force booster pump, or worn nozzles, in combination with the incorrect option of belt, is a standard recipe for weak approach functionality.

​A further component would be the mechanical strength expected, specifically the resistance of the filter belt to creasing and distortion in the seam (Which leads to a curved seam, which some phone a “smiley encounter” but All those inside the know connect with a “sad facial area”). A high quality belt press provides minimum stresses from the belt, whereas some compromise presses generate more anxiety. The incorrect choice of belt can substantially cut down throughput and capture.

​Seals

Basic merchandise including wash spray seals and enclosures will often be

neglected, resulting in aerosol emissions. While some operators

have documented that they may have tolerated these aerosols for many

a long time with no sick consequences on their own staff, it is far much better to carry

out the bare minimum servicing demanded, and the advantages will include

a happier workforce. A happy operator will consider far more care of his

products and have a tendency to produce a greater method end result.

​Spray Washbox

Seals will need common inspection and alternative wherever important. It is crucial they be put in place accurately in an effort to seal proficiently. A typical installation oversight is to offer insufficient flexibility in the piping to the spray headers to make sure that suitable adjustment is difficult.

​Medical professional Blades

Other small mechanical locations where by faults are made, are cake launch “medical doctor” blades and gravity drainage zone skirt seals. There's a notion that if the thickness of fabric is elevated, it will eventually operate much better. Having said that, in engineering, often larger will not be often improved, and the additional stiffness of health care provider blades and aspect skirt sealing rubbers may result in mechanical difficulties which include inadequate belt monitoring, and elevated motor electric power consumption, and shorter belt daily life.

​Tuning

Similar to a motor vehicle, sludge dewatering programs should be tuned by specialist personnel at common intervals. A plant with small improvements in functioning employees and approach disorders may only need to have re-tuning each individual three or four many years, While yearly tuning and re­teaching might be appropriate for wastewater plants in higher development regions and with swift team turnover.

Changes to sludge age can change the characteristics from the sludge, and need a special polymer and press settings.

In tuning, the professional will evaluate the system from the biosolids conditioning substances in the mixing and flocculation routine, and correlate this Along with the belt speeds, form of filter belt weave, belt pressures, and attributes of the particular belt press. Some presses for instance are really tough within the formed floccs, Whilst Some others may need a more Light action. The specialist could also spot mechanically established course of action troubles, including bad belt washing or range.

​Centrifuges

These types of aspects can also be legitimate regarding centrifuge dewatering equipment, but designed more intricate by The truth that the Visible clues provided by the belt push aren't out there Together with the centrifuge. It's also simpler to ignore very poor performance of a centrifuge procedure, as the process are all occurring In the machine, beneath a canopy. Off-tune centrifuges will consume a whole lot extra polymer, or might develop much deteriorated capture costs, as well as lowered throughput.

​Summary

A thoroughly adjusted dewatering program will present Price tag financial savings by way of lessened polymer consumption, manpower for operation, and energy usage. An additional reward is often lessened disposal costs from a drier cake. As being a large proportion on the running price of a cure plant is usually attributed into the sludge dewatering and managing, a little financial investment in maintaining and tuning this equipment can result in substantial financial savings.

To know more details visit here: sludge dewatering equipments manufacturer

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The agricultural testing market is projected to reach USD 9.8 billion by 2028 from USD 6.7 billion by 2023, at a CAGR of 7.1% during the forecast period in terms of value. The agricultural testing market refers to the industry involved in analyzing various agricultural products, such as soil, water, compost, biosolids, manure and seeds, to determine their quality, composition, and presence of contaminants. This type of testing is crucial for ensuring food safety, optimizing crop production, and maintaining environmental sustainability in the agriculture sector.