Sustainability is becoming harder to discuss in vague terms.
A company can say that it intends to become greener, use less water, protect biodiversity, improve working conditions or build a more responsible supply chain. The difficult part begins when a customer, investor, regulator or procurement team asks a simple follow-up question:
Can you prove it?
That question is reshaping the sustainability market.
Businesses increasingly need reliable information about carbon emissions, energy use, water withdrawals, waste, materials, suppliers, climate exposure and nature dependencies. They also need systems capable of turning that information into decisions-where to invest, which suppliers to engage, which products to redesign, which claims can be supported and which sustainability risks could eventually affect revenue, cost or access to capital.
In other words, sustainability is moving away from being primarily a communications exercise.
It is becoming part of business intelligence, risk management, procurement, product strategy, finance and operations.
DataM Intelligence's Sustainability research tracks the markets developing around that change, from ESG analytics and sustainable finance to environmental technologies, resource management, climate resilience, green IT, regenerative agriculture and digital sustainability.
For several years, corporate sustainability reporting appeared to be moving toward ever larger amounts of disclosure.
2026 has introduced a more nuanced direction.
In Europe, the Corporate Sustainability Reporting Directive remains an important part of the reporting framework, but the EU has also moved to simplify the system substantially. On July 3, 2026, the European Commission adopted revised European Sustainability Reporting Standards intended to make reporting shorter, clearer and more focused on material information.
The revised ESRS reduce mandatory datapoints by more than 60% and total datapoints by more than 70%.
That matters because it changes what companies should optimize for.
The objective is no longer:
Collect every sustainability datapoint available.
It is increasingly:
Identify the sustainability information that genuinely matters to the business and its stakeholders, then make that information defensible.
This is the new commercial context for sustainability software, ESG analytics, assurance services, environmental monitoring and sustainability advisory.
Companies traditionally manage financial performance through ledgers: structured records showing where money comes from and where it goes.
Sustainability is beginning to require a similar discipline.
Not one ledger, but several.
Carbon remains the most mature area of corporate environmental measurement.
Companies increasingly track emissions from direct operations, purchased energy and wider value chains. But the quality of that information can differ substantially.
Fuel consumption from a company-owned boiler may be relatively straightforward to measure.
Estimating emissions associated with thousands of suppliers, purchased components, logistics routes or end-of-life products is much more difficult.
That creates a growing market around:
carbon accounting,
energy management,
emissions monitoring,
supplier emissions data,
climate analytics,
verification,
and automated sustainability reporting.
DataM Intelligence's AI in ESG & Sustainability Market research identifies ESG data analytics, carbon-footprint tracking, climate-risk modelling and sustainability reporting as major application areas for AI-enabled sustainability technologies.
The significance of this market is not simply that AI can produce another dashboard.
The real value lies in reducing the amount of sustainability information that must be gathered, reconciled and checked manually.
A multinational company can receive sustainability information from factories, utility bills, transport providers, suppliers, ERP systems, procurement platforms, satellite observations, environmental sensors and external databases.
The problem is rarely a complete absence of data.
It is usually that the data live in different places, use different units and arrive at different levels of quality.
Artificial intelligence can help classify documents, extract emissions information, detect missing records, model environmental risk and identify anomalies across large sustainability datasets.
DataM Intelligence's recently published AI in ESG & Sustainability Market report specifically covers machine learning, NLP, predictive analytics and generative AI across energy, manufacturing, financial services, retail, healthcare, technology and government applications.
That report should become one of the first assets users see on this Sustainability page.
The relationship between AI and sustainability is not one-directional.
AI can help companies measure energy and emissions, while AI infrastructure itself consumes electricity, water and computing resources.
This makes Green IT increasingly relevant.
DataM Intelligence estimates its Green IT Market at USD 32.40 billion in 2025 and USD 140.34 billion by 2035, driven in part by sustainable data centers and energy-efficient enterprise IT.
For CIOs and sustainability leaders, questions increasingly overlap:
How efficiently are computing resources being used?
What is the carbon intensity of cloud infrastructure?
How should enterprises evaluate AI workload efficiency?
What are the water implications of digital infrastructure?
How should IT equipment be reused, refurbished or retired?
Digital transformation and sustainability therefore cannot be treated as completely separate strategies.
Carbon has a convenient characteristic from an accounting perspective: greenhouse gases can be converted into a common unit.
Nature is much harder.
A company can depend on forests for water regulation, pollinators for agriculture, healthy soils for crop yields, or coastal ecosystems for physical protection. Those dependencies cannot all be reduced neatly to tonnes of CO₂.
Yet nature-related risk is moving closer to mainstream financial reporting.
The Taskforce on Nature-related Financial Disclosures provides a framework designed to help organizations identify and disclose nature-related dependencies, impacts, risks and opportunities.
More importantly for 2026, the International Sustainability Standards Board has moved nature-related disclosures into standard-setting. At its July 2026 meeting, the ISSB confirmed that the due-process requirements had been satisfied to begin balloting an exposure draft on nature-related disclosures.
The ISSB currently aims to publish that exposure draft in October 2026.
That is a significant shift.
Nature is moving from a specialist biodiversity discussion toward the same corporate information architecture used for financial and climate-related risk.
A tonne of greenhouse gas has broadly similar climate relevance regardless of where it is emitted.
Nature impacts are different.
A cubic metre of water consumed in a water-rich location does not create the same risk as the same quantity withdrawn from a drought-prone basin.
Land conversion near a biodiversity hotspot is not equivalent to land use in a less ecologically sensitive area.
For this reason, nature-related sustainability analysis increasingly needs location-specific data.
That creates markets around:
geospatial intelligence,
satellite monitoring,
biodiversity datasets,
water-basin analytics,
land-use monitoring,
supplier mapping,
and environmental-risk software.
Sustainability research should begin connecting these technologies rather than discussing biodiversity only as a corporate pledge.
Water sustainability can easily become abstract until a factory, mine, farm or data center cannot obtain enough of it.
Then it becomes an operating issue.
Companies use water for cooling, cleaning, processing, food manufacturing, semiconductor fabrication, agriculture, boilers, mining and many other activities.
Water risk therefore combines several questions:
How much water does the business need?
Where does it come from?
How stressed is the local basin?
How much can be reused?
What quality is required?
What happens to wastewater?
Can production continue during drought?
This is why water stewardship should have a larger role on your Sustainability page.
DataM already has strong assets around Industrial Water Reuse and Recycling, Wastewater Treatment Services, Environmental Technology and sector-specific water treatment. The current Sustainability cluster includes many wastewater reports, but they appear as an undifferentiated list rather than under a strategic water theme.
The editorial message should shift from “wastewater treatment is sustainable” to:
Water security is part of business continuity.
Treating industrial water so it can circulate through operations more than once can lower freshwater demand and reduce wastewater discharge.
That connection makes water reuse particularly relevant to manufacturing, semiconductors, chemicals, food processing, mining and data centers.
It also gives Sustainability a logical bridge to the Circular Economy cluster without duplicating that entire page.
Circular Economy can own resource circulation.
Sustainability should own water performance, exposure and stewardship.
A company can operate highly efficient offices and still purchase carbon-intensive materials, source from water-stressed regions or depend on suppliers with significant environmental and social risks.
That is why supply-chain sustainability is difficult.
Much of the relevant information belongs to somebody else.
Companies may need data from:
raw-material suppliers,
contract manufacturers,
transport providers,
farms,
packaging companies,
distributors,
and downstream product partners.
This creates a major sustainability-data problem.
Large companies need information from smaller suppliers, while those suppliers may lack the people, software or systems to respond to dozens of different ESG questionnaires.
The EU's 2026 sustainability-reporting simplification explicitly addresses the burden placed on smaller value-chain companies. The revised framework introduces mechanisms intended to restrict excessive information requests made to companies outside mandatory reporting scope.
That is an important market signal.
The future of supply-chain sustainability is unlikely to be thousands of companies repeatedly completing slightly different spreadsheets for every customer.
The market is moving toward reusable, standardized and increasingly interoperable sustainability data.
The environmental part is important, but ESG supply-chain analysis should not stop at greenhouse-gas emissions.
Depending on the sector, buyers may need to evaluate:
water use,
land conversion,
deforestation,
waste handling,
chemical management,
human rights,
working conditions,
product safety,
and responsible sourcing.
The EU Corporate Sustainability Due Diligence Directive establishes mandatory responsible-business-conduct requirements for large EU companies and certain non-EU companies operating at scale in the EU market.
Its rules have also been affected by the EU's wider sustainability simplification agenda, demonstrating another recurring 2026 theme:
Sustainability obligations are not disappearing, but companies are being pushed toward more targeted and usable implementation.
That is fertile ground for supplier-risk platforms, traceability technologies, due-diligence services, audit providers and sustainability-data companies.
Corporate averages have limits.
A company may reduce overall emissions while still selling products with dramatically different environmental footprints.
That is why sustainability measurement is gradually moving closer to individual products.
Product-level sustainability can involve:
embedded carbon,
material composition,
recycled content,
water footprint,
durability,
repairability,
packaging,
chemical content,
and end-of-life options.
The Digital Product Passport infrastructure now being rolled out in Europe illustrates how product-level information and sustainability policy are beginning to converge.
For DataM, this is another reason not to keep Sustainability isolated from your Circular Economy research.
The Digital Circular Economy Market should be internally linked from this page because it covers material traceability, lifecycle information and sustainability-data platforms.
But Circular Economy should remain the primary home for the DPP topic.
On Sustainability, the emphasis should instead be:
How does product-level evidence support credible sustainability performance and claims?
Corporate sustainability reports used to contain large amounts of narrative explaining policies, ambitions and initiatives.
Narrative still matters.
But the credibility of sustainability performance increasingly comes from the numbers behind it.
Energy consumed.
Water withdrawn.
Waste generated.
Emissions released.
Renewable electricity purchased.
Recycled material used.
Supplier coverage achieved.
Environmental incidents recorded.
Nature risks identified.
That is what makes the 2026 ESRS revision so interesting.
Europe is not simply asking companies to publish more information. The revised standards are designed to reduce unnecessary datapoints and focus reporting more clearly on information that is material to users.
This favors organizations that can build good sustainability-data infrastructure.
It is also good news for companies offering:
ESG software,
data-management tools,
environmental monitoring,
assurance,
sustainability analytics,
and regulatory intelligence.
Europe is only one part of the story.
The International Sustainability Standards Board is working to establish a global baseline for investor-focused sustainability disclosure through IFRS S1 and IFRS S2, while jurisdictions around the world are deciding how to adopt or otherwise use those standards.
That creates a different challenge for multinational companies.
They do not need a sustainability system that can produce one report.
They need information architecture capable of supporting multiple reporting requirements without rebuilding the underlying dataset each time.
That shifts competitive advantage toward platforms built around reusable sustainability data rather than fixed reporting templates.
Finance is where sustainability becomes especially consequential.
A company can treat an environmental target as aspirational until the issue begins affecting financing costs, insurance, investment decisions or access to capital.
Sustainable finance connects environmental and social information with:
lending,
investment,
bonds,
insurance,
project finance,
and portfolio allocation.
DataM already has a Sustainable Finance Market report, yet it is absent from the live Sustainability cluster.
It should be added prominently.
The EU Taxonomy also remains an important classification framework intended to help identify economic activities aligned with environmental objectives and direct investment toward the transition.
The broader opportunity is not simply “green bonds.”
Financial institutions increasingly need to evaluate the sustainability characteristics of borrowers, projects and portfolios alongside conventional credit and market risks.
Physical climate risk can damage property, reduce agricultural output, interrupt logistics, affect insurance claims or reduce asset values.
Transition risk can affect companies exposed to carbon pricing, regulation, technology substitution or changing demand.
UNEP FI's 2026 work on sustainability-risk integration notes that climate risk remains the most advanced area of sustainability-risk regulation and banking practice, while nature, pollution and social factors are increasingly entering risk frameworks.
That creates opportunities for:
climate analytics,
geospatial modelling,
scenario analysis,
parametric insurance,
risk data,
portfolio screening,
and adaptation intelligence.
DataM's newer Parametric Insurance and Climate-Resilient Agriculture research can support this theme without turning Sustainability into another insurance or agriculture vertical.
A sustainability strategy cannot be based only on reducing future environmental impact.
Companies must also deal with environmental change that is already affecting operations.
Heat.
Drought.
Flooding.
Wildfire.
Water scarcity.
Crop variability.
Supply interruptions.
Infrastructure stress.
This introduces the concept of resilience.
A sustainable factory needs not only lower emissions but also reliable water and power.
A sustainable agricultural system needs not only lower input use but also the ability to withstand changing rainfall and temperature.
A sustainable supply chain needs not only lower carbon intensity but also the ability to function during disruption.
This is why climate adaptation deserves more visibility in this cluster.
DataM's Climate-Resilient Agriculture Market research, for example, covers technologies and practices designed to reduce risks from drought, floods, heatwaves and changing rainfall.
Over time, Sustainability should develop a dedicated Climate Adaptation & Resilience research collection.
That would create valuable white space between the existing Energy Transition and Decarbonization clusters, both of which naturally focus more heavily on mitigation.
Agriculture is one of the few markets where almost every sustainability issue intersects.
It uses land and water.
It affects biodiversity.
It generates greenhouse-gas emissions.
It supports global food supply chains.
And it is directly exposed to climate variability.
That makes sustainable agriculture particularly relevant to this parent Sustainability hub.
DataM Intelligence estimates the Sustainable Agriculture Market at USD 17.06 billion in 2025 and USD 37.37 billion by 2033.
DataM also has dedicated research on Regenerative Agriculture, which focuses on soil health, biodiversity, water cycles and ecosystem services.
Both reports should be added to this cluster.
They provide something your current portfolio is missing: sustainability research focused on natural systems, not only energy, waste and manufactured materials.
Not every sustainability problem is solved with software.
Factories still need equipment.
Cities need monitoring.
Water needs treatment.
Pollution needs to be controlled.
Waste needs to be processed.
DataM's Environmental Technology Market is therefore another strong candidate for flagship placement on this page. The report covers waste recycling, wastewater treatment, water purification, pollution monitoring, emissions control, desalination, bioremediation, carbon capture and other environmental technologies.
Environmental technology should occupy the space between sustainability ambition and physical implementation.
Software can identify a problem.
Environmental technology often has to solve it.
This is the most important structural decision I would make.
Sustainability should behave like a parent intelligence hub, not a warehouse containing every environmentally relevant report.
A visitor interested in carbon capture should move to Decarbonization.
A visitor interested in solar, storage or hydrogen should move to Energy Transition.
A visitor interested in EV charging and electric powertrains should move to Electrification.
A visitor interested in recycling, DPP or secondary materials should move to Circular Economy.
The Sustainability page should remain focused on the topics that cut across those markets:
ESG and sustainability data
reporting and disclosure
nature and biodiversity
water stewardship
climate risk and adaptation
supplier sustainability
sustainable finance
green IT
responsible products
sustainable agriculture
environmental technology
measurement and verification
That makes the page much more useful.
It also gives search engines a clearer reason to rank each cluster for a different semantic territory.
Do not organize this page around technologies.
Organize it around management questions.
Feature:
AI in ESG & Sustainability Market
Environmental Technology Market
Emission Monitoring System Market
Testing, Inspection and Certification Market
This should be the data, measurement, monitoring, and verification collection.
Feature:
AI in ESG & Sustainability Market
Sustainable Finance Market
Support these reports with editorial intelligence covering CSRD, ESRS, ISSB, TNFD and sustainability reporting interoperability.
This is also an obvious area for future DataM research on:
Sustainability Reporting Software
ESG Data Management
Carbon Accounting Software
Feature:
Industrial Water Reuse & Recycling Market
Environmental Technology Market
Sustainable Agriculture Market
Regenerative Agriculture Market
Climate-Resilient Agriculture Market
Develop future research around:
Nature Risk Analytics
Biodiversity Monitoring Technologies
Corporate Water Stewardship
Nature-related reporting is likely to become particularly valuable given the ISSB's current standard-setting work.
Feature:
Green IT Market
AI in ESG & Sustainability Market
AI in Renewable Energy Market
This gives DataM a distinctive sustainability-technology pathway connecting AI, cloud infrastructure, IT efficiency and environmental analytics.
Feature:
Digital Circular Economy Market
Sustainable Agriculture Market
Regenerative Agriculture Market
Then cross-link users to the dedicated Supply Chain Transformation and Circular Economy clusters for deeper operational and material intelligence.
Future research opportunities include:
Supplier Sustainability Software
ESG Supply Chain Data Platforms
Responsible Sourcing Technology
Feature:
Sustainable Finance Market
Renewable Energy Certificate Market
relevant climate-risk and sustainable-investment intelligence.
Do not make Renewable Energy Certificates the hero of this section. Sustainable Finance should be the flagship topic.
Feature:
Environmental Technology Market
Industrial Water Reuse & Recycling Market
Green IT Market
Sustainable Agriculture Market
Then route sector-specific decarbonization, circularity and electrification needs into their specialist cluster pages.
Corporate sustainability is the integration of environmental, social and governance considerations into business strategy, operations, investment, products, supply chains and risk management. Increasingly, it also involves measuring and reporting material sustainability-related information.
Sustainability generally refers to the long-term environmental, social and economic performance of an organization or system. ESG is commonly used as a framework for evaluating environmental, social and governance factors, particularly in corporate reporting, investment and risk analysis.
The EU's Omnibus I simplification package changed the sustainability-reporting framework, and on July 3, 2026 the European Commission adopted revised ESRS designed to reduce reporting burden and focus disclosures more clearly on material information. The revised standards reduce mandatory datapoints by more than 60%.
No. The EU has narrowed and simplified the sustainability-reporting regime, but CSRD reporting continues for companies remaining within scope. The European Commission continues to maintain the CSRD framework and ESRS reporting requirements.
The International Sustainability Standards Board develops IFRS Sustainability Disclosure Standards intended to provide a global baseline of sustainability-related financial information for capital markets. IFRS S1 covers general sustainability-related financial disclosures and IFRS S2 addresses climate-related disclosures.
Companies depend on ecosystems for resources and services, including water, land, pollination, soil productivity and climate regulation. Nature loss can therefore create operating, supply-chain and financial risks. The ISSB has now moved nature-related disclosure work into formal standard-setting.
The Taskforce on Nature-related Financial Disclosures provides a risk-management and disclosure framework to help organizations assess and communicate nature-related dependencies, impacts, risks and opportunities.
AI is being used for ESG-data analytics, carbon tracking, climate-risk modelling, environmental monitoring and automated sustainability reporting. DataM's AI in ESG & Sustainability research identifies these as important areas of adoption.
Green IT refers to technologies and practices intended to reduce the environmental impact of information technology, including improving computing efficiency, reducing energy consumption and addressing the lifecycle of IT equipment. DataM projects its Green IT Market from USD 32.40 billion in 2025 to USD 140.34 billion in 2035.
Businesses in agriculture, manufacturing, semiconductors, food processing, mining and digital infrastructure can depend heavily on a reliable water supply. Water scarcity or poor water quality can therefore become an operating and investment risk, not merely an environmental issue.
Sustainable finance incorporates environmental and social considerations into financial activities such as lending, investment, insurance and capital allocation. The EU Taxonomy is one example of a framework designed to help classify economic activities against environmental objectives.
Important emerging areas include nature-related disclosure, sustainability-data automation, climate adaptation, water risk, supplier sustainability, Green IT, sustainability assurance and greater integration of environmental data into enterprise and financial decision-making. The ISSB's planned nature-related exposure draft later in 2026 is an especially important development to monitor.