Global Soil Monitoring Market Outlook, 2031

The global soil monitoring industry covers the sensors, instruments, laboratory testing, remote sensing, software and services used to measure and track the physical, chemical and biological properties of soil. Soil monitoring measures parameters such as moisture, temperature, salinity and electrical conductivity, pH, nutrients including nitrogen, phosphorus and potassium, organic matter and soil organic carbon, compaction, texture, microbial activity and contaminants such as heavy metals, pesticides and PFAS. Technologies include in-field sensors, such as capacitance, time-domain reflectometry and tensiometer moisture probes, nutrient and pH sensors; soil sampling and laboratory analysis; spectroscopy using near-infrared and mid-infrared instruments; proximal sensing tools mounted on vehicles; satellite, aerial and drone remote sensing; gamma-ray and electromagnetic induction sensors; eDNA and microbial analysis; and data platforms and AI models that turn measurements into maps, recommendations and reports. Applications include precision agriculture and irrigation, soil health and regenerative agriculture programmes, soil carbon measurement for carbon markets, environmental monitoring and contaminated land assessment, construction and geotechnical engineering, forestry, research and government soil surveys. Leading companies include METER Group, Campbell Scientific, Sentek, Stevens Water Monitoring, Delta-T Devices, CropX, Teralytic, AquaSpy, Hortau, Acclima, Spectrum Technologies, Veris Technologies, SoilOptix, Yara, Trimble, Deere, Planet Labs, Regrow, Agreena, Indigo Ag, Perennial, EarthOptics and laboratories such as Eurofins, SGS and Waypoint Analytical.

Soil monitoring has moved up the policy and business agenda as awareness of soil degradation, food security, water scarcity and climate change has grown. The EU estimates that 60% to 70% of its soils are unhealthy, costing about €50 billion a year, and in December 2025 the EU Soil Monitoring Law entered into force, the first EU legislation dedicated to soil health. It requires member states to establish soil monitoring frameworks based on common descriptors and methodologies, assess soil health, support land managers and identify, register and manage potentially contaminated sites, with three years to transpose the directive and the first soil measurements expected within that timeframe, supported by the EU's LUCAS soil survey. The law also calls for a watch list of emerging contaminants, including PFAS and pesticides, within 18 months. In agriculture, rising fertiliser prices after 2021, water scarcity and precision farming have increased adoption of soil sensors and variable-rate management, and India's Soil Health Card scheme has provided soil test-based recommendations to millions of farmers. Carbon markets and corporate sustainability programmes have created demand for measuring soil organic carbon to verify regenerative agriculture, with companies such as Indigo Ag, Agreena, Regrow and Perennial combining sampling, spectroscopy, remote sensing and models, although standards and permanence questions remain. Food companies including PepsiCo, Nestlé, General Mills and Unilever support regenerative agriculture programmes requiring soil data, while satellite and AI technologies are reducing the cost of soil monitoring at scale.

Market Dynamics

Market Drivers
• Soil Health Policy and Regulation:The EU Soil Monitoring Law, national soil strategies, the EU Common Agricultural Policy's conditionality requirements, China's soil pollution laws and national soil health programmes in India, the United States and elsewhere require or encourage systematic soil monitoring. Member states must build monitoring networks, sample soils and report on soil health, creating demand for sampling, laboratory analysis, sensors and data systems. Contaminated site registers require soil investigation.
• Precision Agriculture, Water Efficiency and Input Costs:Farmers use soil moisture sensors to schedule irrigation and save water, and soil nutrient testing and mapping to apply fertiliser precisely, reducing costs and environmental losses. High fertiliser prices, water scarcity in regions such as California, India, the Middle East and Australia, and regulations on nitrate pollution encourage adoption. Precision agriculture platforms from Deere, Trimble, CNH and others integrate soil data with machinery.

Market Challenges
• Cost, Spatial Variability and Accuracy:Soil varies greatly across short distances and depths, so accurate monitoring requires many samples or sensors, which can be expensive for large farms and national networks. In-field nutrient sensors are less mature than moisture sensors, and remote sensing estimates of soil properties require calibration with ground samples. Laboratory methods differ, and harmonising data across countries and programmes is difficult.
• Adoption Barriers and Uncertain Carbon Market Value:Many smallholder farmers lack the funds, connectivity and skills to use soil sensors and digital tools, and the return on investment can be unclear. Soil carbon credits face scrutiny over measurement accuracy, permanence and additionality, and carbon prices have been low and volatile, limiting demand from carbon programmes. Some European farmers and governments opposed stronger soil obligations, leading to a softened law.



Market Trends
• Remote Sensing, AI and Digital Soil Mapping:Satellites, drones and airborne sensors, combined with AI and machine learning, are used to map soil properties such as organic carbon, moisture, salinity and erosion risk over large areas at lower cost. Digital soil mapping combines field samples, covariates and models to produce high-resolution maps, and platforms from Planet Labs, EarthOptics, Perennial and others support agriculture and carbon programmes. The EU's Copernicus programme and LUCAS survey provide data.
• Soil Carbon Measurement and Regenerative Agriculture:Measurement, reporting and verification of soil organic carbon has become a major application, supporting carbon credits and corporate regenerative agriculture programmes. Companies use a combination of stratified sampling, spectroscopy, remote sensing and biogeochemical models to estimate carbon changes, and standards bodies such as Verra and Gold Standard have updated methodologies. Soil biology and biodiversity monitoring using eDNA are emerging tools.

Segment Analysis

Soil moisture and physical property monitoring accounts for the largest share of in-field soil monitoring, while nutrient, carbon and contaminant monitoring are growing segments. Soil moisture monitoring, using capacitance, time-domain reflectometry, frequency-domain and tensiometer sensors, is the most widely deployed in-field application, supporting irrigation scheduling in agriculture, landscape management and research, and it is supplied by METER Group, Sentek, Campbell Scientific, Stevens, Acclima, CropX and others. Soil temperature, salinity and electrical conductivity monitoring are often combined with moisture sensors. Soil nutrient monitoring, including nitrogen, phosphorus, potassium and pH, is performed mainly through laboratory testing of samples, with emerging in-field sensors and proximal sensing tools. Soil organic carbon and soil health monitoring, measuring organic matter, carbon stocks, aggregate stability, microbial activity and biodiversity, has grown with soil health policies and carbon markets. Soil contamination monitoring detects heavy metals, hydrocarbons, pesticides, PFAS and other pollutants for environmental compliance and contaminated land management. Soil physical properties, such as compaction, texture, bulk density and erosion, are measured for agriculture, construction and land management. Geotechnical soil monitoring, including pore pressure, settlement and slope stability, supports construction, mining and infrastructure.

Sensors and in-field instruments and laboratory testing account for the largest shares of soil monitoring spending, while remote sensing and software platforms are the fastest-growing technology segments. In-field sensors and instruments, including soil moisture probes, weather and soil stations, nutrient and pH sensors, electrical conductivity sensors and data loggers with wireless connectivity, provide continuous data for farms, research sites and environmental monitoring. Laboratory testing, including chemical analysis of nutrients, organic carbon, contaminants and physical properties, remains the reference method and is used for soil surveys, compliance and carbon verification, provided by laboratories such as Eurofins, SGS, ALS and agricultural labs. Proximal sensing, including tractor-mounted electrical conductivity and gamma-ray sensors, and handheld and on-the-go spectroscopy, maps soil properties across fields. Remote sensing, including satellite imagery, drones, airborne hyperspectral and radar sensors, estimates surface soil moisture, organic carbon and degradation over large areas. Software platforms and analytics, including farm management systems, digital soil maps, AI models and carbon MRV platforms, turn data into recommendations and reports. Sampling equipment and services, including automated soil samplers and sampling crews, support testing programmes. Emerging technologies include eDNA analysis of soil biology and low-cost IoT sensors.

Agriculture accounts for the largest share of soil monitoring demand, while environmental monitoring, carbon markets, research and construction form important applications. Agriculture is the largest application, including precision irrigation, fertiliser management, soil health improvement, crop planning and regenerative agriculture on farms of all sizes, supported by agronomists, input suppliers, equipment makers and farm management platforms. Horticulture, vineyards, orchards and high-value crops use soil moisture monitoring intensively to manage irrigation and quality. Environmental monitoring and government soil surveys, including national soil monitoring networks, the EU LUCAS survey and implementation of the EU Soil Monitoring Law, measure soil health, erosion, contamination and land degradation. Carbon markets and corporate sustainability programmes use soil organic carbon measurement to verify credits and supply chain emissions reductions. Contaminated land assessment uses soil testing for site investigations and remediation. Construction, mining and geotechnical engineering use soil monitoring for foundations, slopes, embankments and tailings dams. Forestry and land restoration monitor soil conditions in forests and restoration projects. Turf management, golf courses, sports fields and landscaping use moisture sensors. Research and academia use soil instruments for climate, ecology and agricultural science.

Farmers and agribusinesses are the largest end users of soil monitoring, while governments, research institutions, environmental consultants and carbon project developers form major customer groups. Farmers and agribusinesses, including large commercial farms, cooperatives, plantation companies and agricultural service providers, use soil sensors, testing and analytics to improve yields and reduce input costs, and they are the largest customer group. Agronomy and input companies, such as Yara, Nutrien, Corteva and Syngenta, offer soil testing and digital agronomy services to farmers. Government agencies and public institutions, including environmental and agricultural ministries, soil survey organisations and EU member state authorities implementing the Soil Monitoring Law, operate national monitoring networks. Research institutions and universities use high-precision instruments for scientific research. Environmental consultants and laboratories perform soil investigations for contaminated land, development and compliance. Carbon project developers and food companies use soil carbon measurement for regenerative agriculture programmes. Construction and mining companies monitor soil for geotechnical safety. Golf courses, sports facilities, landscapers and municipalities use soil moisture sensors for turf and green space management. Water utilities and catchment managers monitor soils to protect water quality.

Regional Analysis

North America and Europe lead the soil monitoring market because of advanced precision agriculture, strong research institutions and new soil health regulation, while Asia-Pacific is the fastest-growing region driven by food security, water scarcity and government soil health programmes. North America, led by the United States, is a leading soil monitoring market, with widespread precision agriculture, irrigation management in the western states, many soil sensor companies such as METER Group, Campbell Scientific, Stevens and CropX's US operations, USDA soil survey and conservation programmes, and a large voluntary soil carbon and regenerative agriculture market involving Indigo Ag, Regrow, Perennial and major food companies. Canada has large agricultural soil monitoring needs. Europe is a major and fast-developing market because of the EU Soil Monitoring Law, which entered into force in December 2025 and requires member states to build soil monitoring frameworks, sample soils using common methods and register contaminated sites within three years for transposition and ten years for registers. The EU's LUCAS soil survey, Common Agricultural Policy requirements and national programmes in France, Germany, the Netherlands, Denmark and the UK support demand, and companies such as Delta-T Devices, Agreena and Eurofins are active. Asia-Pacific is the fastest-growing region. India's Soil Health Card scheme has issued soil test-based cards to farmers across the country, China conducts national soil surveys and pollution monitoring under its soil laws, including its third national soil census, and Australia, Japan and Southeast Asian countries promote precision irrigation and soil health. Latin America, led by Brazil and Argentina, has large-scale agriculture adopting soil sampling, mapping and sensors, and soil carbon projects. The Middle East and Africa use soil monitoring for irrigation efficiency, desertification control and food security, supported by international programmes such as FAO's Global Soil Partnership.

Considered in this report

• Historic Year: 2020
• Base Year: 2025
• Estimated Year: 2026
• Forecast Year: 2031

Aspects covered in this report
• Global Soil Monitoring Market with its value and forecast along with its segments
• Various drivers and challenges
• Ongoing trends and developments
• Top profiled companies
• Strategic recommendation

By Parameter
• Soil Moisture
• Temperature, Salinity and Conductivity
• Nutrients and pH
• Soil Organic Carbon and Soil Health
• Contaminants
• Physical and Geotechnical Properties

By Technology
• In-Field Sensors and Instruments
• Laboratory Testing
• Proximal Sensing
• Remote Sensing
• Software and Analytics Platforms

By Application
• Agriculture
• Horticulture and High-Value Crops
• Environmental Monitoring and Surveys
• Carbon Markets
• Contaminated Land Assessment
• Construction and Mining

By End User
• Farmers and Agribusinesses
• Agronomy and Input Companies
• Government Agencies
• Research Institutions
• Environmental Consultants
• Carbon Project Developers