The Interagency Ecological Program’s (IEP) Environmental Monitoring Program (EMP) was initiated in compliance with the Water Right Decision D-1379 (now mandated by Water Right Decision D-1641) and has monitored discrete water quality and nutrients in the upper San Francisco Estuary since 1975. The objectives of the EMP are to obtain consistent and accurate monthly data at established monitoring stations, provide and document information necessary to achieve compliance with salinity, flow, and dissolved oxygen standards, and to report this information for the purpose of management and conservation of the upper San Francisco Estuary. While the EMP also collects biological data, this dataset only includes the discrete water quality and nutrient data collected by the EMP from 1975-2021. Links to other EMP datasets can be found here.

Data is also accessible via the Environmental Data Initiative.

The global environmental monitoring big data system market is poised for significant growth, driven by the increasing awareness of environmental protection and the need for real-time data to monitor and manage environmental resources. The market size is projected to reach USD 21,730 million by 2033, exhibiting a CAGR of 7.5% from 2025 to 2033. Growing concerns about environmental pollution, climate change, and natural resource depletion are fueling the demand for advanced monitoring systems to provide timely and accurate data for decision-making. Key market trends include the adoption of advanced technologies such as IoT, cloud computing, and AI to enhance data collection, processing, and analysis capabilities. The increasing implementation of smart cities and the focus on sustainable development are also driving the demand for environmental monitoring systems. Moreover, government regulations and policies aimed at protecting the environment and promoting environmental sustainability are expected to create favorable growth opportunities for the market.

Data Center Environmental Monitoring Market Outlook

According to our latest research, the global data center environmental monitoring market size reached USD 2.65 billion in 2024, with a robust year-on-year growth driven by increasing digital transformation across industries. The market is anticipated to exhibit a healthy CAGR of 14.2% from 2025 to 2033, propelling the market to a forecasted value of USD 7.97 billion by 2033. This remarkable growth trajectory is primarily fueled by the surging demand for real-time monitoring solutions that ensure optimal performance, energy efficiency, and risk mitigation within modern data centers, which are becoming increasingly vital in the global digital economy.

Several critical growth factors are contributing to the expansion of the data center environmental monitoring market. First and foremost, the proliferation of hyperscale and edge data centers has heightened the need for sophisticated environmental monitoring systems. As organizations continue to migrate workloads to the cloud and embrace hybrid IT architectures, maintaining the physical environment of data centers becomes essential to prevent downtime, hardware failures, and data loss. The growing complexity of data center infrastructure, coupled with increasing power densities, requires advanced monitoring solutions capable of tracking parameters such as temperature, humidity, power consumption, water leaks, and smoke. These solutions not only ensure the reliability and longevity of IT assets but also help operators comply with stringent regulatory requirements regarding environmental safety and energy management.

Secondly, the rising emphasis on energy efficiency and sustainability in data center operations is a pivotal growth driver. With data centers accounting for a significant share of global electricity consumption, operators are under immense pressure to optimize energy usage and reduce their carbon footprint. Data center environmental monitoring solutions enable real-time tracking and analysis of energy consumption patterns, allowing for proactive adjustments and predictive maintenance. This, in turn, leads to substantial cost savings and supports organizationsÂ’ green initiatives. Furthermore, the integration of artificial intelligence and IoT technologies in environmental monitoring systems is enhancing their capabilities, enabling predictive analytics, automated alerts, and remote management, which are increasingly sought after in large-scale and distributed data center environments.

Another significant factor driving market growth is the increasing frequency of extreme weather events and the heightened risk of environmental hazards, which have underscored the importance of robust monitoring systems. Data centers, being critical infrastructure for businesses and governments alike, must operate with minimal disruption. Environmental monitoring solutions provide early warning signals for issues such as overheating, humidity fluctuations, water leaks, and smoke, thereby enabling swift remedial action and minimizing the risk of catastrophic failures. The adoption of these solutions is particularly pronounced in sectors such as BFSI, healthcare, and government, where data integrity and uptime are paramount. The ongoing digitalization of these sectors is further accelerating the deployment of advanced monitoring technologies.

Critical Environment Monitoring is becoming an indispensable component in the data center industry, as it ensures the continuous operation of facilities by providing real-time insights into environmental conditions. This technology is crucial for identifying potential risks such as overheating, humidity fluctuations, and power anomalies before they escalate into serious issues. By leveraging advanced sensors and analytics, critical environment monitoring systems help data center operators maintain optimal conditions, thereby enhancing the reliability and efficiency of IT infrastructure. As data centers evolve to meet the demands of digital transformation, the role of critical environment monitoring in safeguarding data integrity and operational continuity becomes increasingly vital.

From a regional perspective, North America continues to dominate the data center environmental monitoring market, accounting for the largest share in 2024, followed closely by

Reporting units of sample results [where 1 picoCurie (pCi) = 1 trillionth (1E-12) Curie (Ci)]: • Water Samples are reported in pCi/L. Data Quality Disclaimer: This database is for informational use and is not a controlled quality database. Efforts have been made to ensure accuracy of data in the database; however, errors and omissions may occur. Examples of potential errors include: • Data entry errors. • Lab results not reported for entry into the database. • Missing results due to equipment failure or unable to retrieve samples due to lost or environmental hazards. • Translation errors – the data has been migrated to newer data platforms numerous times, and each time there have been errors and data losses. Error Results are the calculated uncertainty for the sample measurement results and are reported as (+/-). Environmental Sample Records are from the year 1998 until present. Prior to 1998 results were stored in hardcopy, in a non-database format. Requests for results from samples taken prior to 1998 or results subject to quality assurance are available from archived records and can be made through the DEEP Freedom of Information Act (FOIA) administrator at deep.foia@ct.gov. Information on FOIA requests can be found on the DEEP website. FOIA Administrator Office of the Commissioner Department of Energy and Environmental Protection 79 Elm Street, 3rd Floor Hartford, CT 06106

Reporting unit of monitoring results is millirem [where 1 millirem = 1 thousandth (10-3) of a Rem] as defined in Regulations of Connecticut State Agencies Section 19-24-4. Monitoring results below the minimum measurable quantity for the monitoring period are recorded as “M.” Quarterly results reflect total integrated gamma exposure received within a calendar 3-month time frame. Environmental monitoring results are reported on a calendar quarterly basis: • 1st Quarter: January, February, March • 2nd Quarter: April, May, June • 3rd Quarter: July, August, September • 4th Quarter: October, November, December Data Quality Disclaimer: This database is for informational use and is not a controlled quality database. Efforts have been made to ensure accuracy of data in the database; however, errors and omissions may occur. Examples of potential errors include: • Data entry errors. • Monitoring results not reported for entry into the database. • Missing results due to equipment failure or unable to retrieve monitors due to lost or environmental hazards. • Translation errors – the data has been migrated to a newer data platform, and there have been errors and data losses. Environmental Monitoring Records are from the year 2008 until present. Prior to 2008 results are stored in hardcopy, in a non-database format. Requests for monitor results prior to 2008 or results subject to quality assurance are available from archived records and can be made through the DEEP Freedom of Information Act (FOIA) administrator at deep.foia@ct.gov. Information on FOIA requests can be found on the DEEP website (https://portal.ct.gov/deep) FOIA Administrator Office of the Commissioner Department of Energy and Environmental Protection 79 Elm Street, 3rd Floor Hartford, CT 06106

The Environmental Monitoring Big Data System market is booming, projected to reach $21.73 billion by 2025, with a 7.5% CAGR. Driven by stricter regulations and technological advancements, this market offers lucrative opportunities across diverse applications and regions. Explore market trends, key players, and future growth projections in our comprehensive analysis.

Data Center Environmental Monitoring System Market Size And Forecast

Data Center Environmental Monitoring System Market size was valued at USD 20.01 Billion in 2023 and is projected to reach USD 45.5 Billion by 2031, growing at a CAGR of 8.45% during the forecast period 2024-2031.

Global Data Center Environmental Monitoring System Market Drivers

The market drivers for the Data Center Environmental Monitoring System Market can be influenced by various factors. These may include:

Increasing Demand for Data Centers: As cloud computing, IoT, AI, and big data have grown, so too has the need for data storage, which has resulted in the global proliferation of data centers. Systems for monitoring the environment are necessary to make sure these data centers run well.

Increasing Energy Costs: Data centers are under pressure to run more effectively as energy costs climb. Systems for monitoring the environment can minimize waste, maximize energy use, and save operating expenses.

Global Data Center Environmental Monitoring System Market Restraints

Several factors can act as restraints or challenges for the Abc. These may include:

High Initial Costs: Installing cutting-edge environmental monitoring systems in data centers may come with a hefty price tag. This covers the price of installation, software, and hardware, which could be prohibitive for smaller data centers or companies with limited resources.

Complexity of Integration: It can be difficult and necessitate specific knowledge to integrate new monitoring systems with the infrastructure that already exists. Compatibility problems with other monitoring tools or legacy systems may make the procedure much more difficult.

The Cary Institute of Ecosystem Studies Environmental Monitoring Program is a long-term data collection program designed to understand how the environment changes over time. The program includes monitoring of climate including temperature and precipitation, as well as variables related to air pollution, such as acid deposition and ozone, and water pollution and other streamwater chemistry. Our solar radiation monitoring includes diffuse and global photosynthetically active radiation (PAR), diffuse and global shortwave radiation, net radiation and UV. Long-term monitoring of solar radiation provides us with an understanding of atmospheric energy dynamics, which can affect natural and human systems. The Cary Institute of Ecosystem Studies, Environmental Monitoring Program furnishes data under the following conditions: The data have received quality assurance scrutiny by our program, and, although we are confident of the accuracy of these data, Cary Institute will not be held liable for errors in these data. Data are subject to change resulting from updates in data screening or models used. Data citation: The following is a standard citation for referencing data from the Cary Institute of Ecosystem Studies, Environmental Monitoring Program:Cary Institute of Ecosystem Studies, Environmental Monitoring Program. 2018 (or current year). Cary Institute of Ecosystem Studies, Box AB, Millbrook, NY 12545, www.caryinstitute.org. Those wishing to publish data from Cary Institute of Ecosystem Studies, Environmental Monitoring Program are encouraged to contact data manager Vicky Kelly, kellyv@caryinstitute.org.For complete data for previous years and for complete metadata, please see appropriate items for the Cary Institute Environmental Monitoring Program at https://caryinstitute.figshare.com/

Discover the booming Environmental Monitoring Software market! Our analysis reveals a $2.5B market in 2025, projected to reach $6.3B by 2033 with a 12% CAGR. Explore key trends, regional insights, leading companies, and the impact of cloud-based solutions and IoT.

Environmental Monitoring Market Outlook

According to our latest research, the global environmental monitoring market size reached USD 23.2 billion in 2024, registering a robust growth trajectory. The market is projected to expand at a CAGR of 8.7% from 2025 to 2033, reaching an estimated USD 49.1 billion by 2033. This sustained growth is primarily driven by increasing regulatory requirements, heightened public awareness about environmental health, and the integration of advanced technologies such as IoT and AI in environmental monitoring solutions.

One of the most significant growth factors propelling the environmental monitoring market is the tightening of global regulations regarding air, water, and soil quality. Governments worldwide are enforcing stricter emission and pollution standards, compelling industries and municipalities to invest in advanced monitoring systems. The proliferation of international agreements, such as the Paris Agreement, and national policies targeting climate change mitigation have further accelerated the adoption of environmental monitoring solutions. These regulatory frameworks not only mandate compliance but also encourage proactive monitoring, fostering a culture of environmental responsibility across sectors. Additionally, penalties for non-compliance and incentives for sustainable practices are boosting the demand for reliable and accurate monitoring technologies.

Another crucial driver is the rapid advancement and adoption of digital technologies in environmental monitoring. The integration of IoT, big data analytics, cloud computing, and artificial intelligence has revolutionized the way environmental data is collected, analyzed, and reported. These technologies enable real-time monitoring, predictive analytics, and automated reporting, significantly improving the efficiency and effectiveness of environmental management. The deployment of smart sensors and wireless networks has made it possible to monitor multiple environmental parameters in real-time, even in remote and inaccessible locations. This technological evolution is not only reducing operational costs but also enhancing the accuracy and timeliness of environmental data, which is critical for informed decision-making and swift response to environmental incidents.

Public awareness and activism around environmental issues have reached unprecedented levels, influencing both policy and corporate behavior. The increasing frequency and severity of environmental disasters, such as wildfires, floods, and industrial accidents, have heightened public concern and demand for transparency. Social media and global news coverage have amplified these concerns, pressuring governments and corporations to adopt comprehensive environmental monitoring systems. Furthermore, the rise of citizen science initiatives and community-based monitoring programs is democratizing environmental data collection, making it more accessible and actionable. This groundswell of public interest is expected to sustain the market's growth momentum in the coming years, as stakeholders recognize the value of reliable environmental information in safeguarding public health and ecological integrity.

From a regional perspective, North America and Europe continue to lead the environmental monitoring market, driven by stringent regulations, high levels of industrialization, and strong governmental support for environmental initiatives. However, the Asia Pacific region is emerging as a significant growth engine, fueled by rapid urbanization, industrial expansion, and increasing environmental awareness among policymakers and the public. Countries such as China, India, and Japan are investing heavily in environmental infrastructure and technology, presenting lucrative opportunities for market players. Meanwhile, Latin America and the Middle East & Africa are gradually catching up, with growing investments in pollution control and sustainable development projects. This diverse regional landscape underscores the global relevance and necessity of environmental monitoring solutions.

The Environmental Monitoring and Assessment Program (EMAP) was a national research program run by EPA’s Office of Research and Development from 1990 to 2008 to develop the tools necessary to monitor and assess the status and trends of national ecological resources. Initially, resources included estuaries and coastal waters, wadeable streams, lakes, wetlands, forests, agroecosystems, arid areas, and landscape ecology. Later, this was narrowed down to just the aquatic resources. EMAP collected field data from 1990 to 2006. EMAP's goal was to develop the scientific understanding for translating environmental monitoring data from multiple spatial and temporal scales into assessments of current ecological condition and forecasts of future risks to our natural resources. EMAP aimed to advance the science of ecological monitoring and ecological risk assessment, guide national monitoring with improved scientific understanding of ecosystem integrity and dynamics, and demonstrate multi-agency monitoring through large regional projects. EMAP developed indicators to monitor the condition of ecological resources. EMAP also investigated designs that addressed the acquisition, aggregation, and analysis of multiscale and multitier data. Monitoring of the nation’s aquatic resources is now being routinely conducted by the National Aquatic Resource Surveys, run by EPA’s Office of Water.

Discover the booming mobile environmental monitoring market! This analysis reveals a $15 billion market in 2025, projected to grow at a 12% CAGR through 2033. Explore key drivers, trends, and regional insights for air, water, soil, and noise monitoring solutions. Learn about top companies and investment opportunities.

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Context

This data is received directly through the Curiosity Rover that is present on the planet Mars.

Content

Rover Environmental Monitoring Station (REMS) is a weather station on Mars for Curiosity rover contributed by Spain and Finland. REMS measures humidity, pressure, temperature, wind speeds, and ultraviolet radiation on Mars. This Spanish project is led by the Spanish Astrobiology Center and includes the Finnish Meteorological Institute as a partner, contributing pressure and humidity sensors.

Acknowledgements

Image Credits

Minnesota Pollution Control Agency (MPCA) surface water monitoring station locations, including lake, stream, biological and discharge. Locations of United States Geological Survey (USGS) stream flow stations are also included. This data set was created as part of MPCA's Environmental Data Access project, which was designed to provide internet access to MPCA's surface water monitoring data. The data set contains locational data and limited attributes for all MPCA stream chemistry stations, MPCA lake monitoring stations, MPCA stream biology stations, MPCA permitted dischargers [National Pollutant Discharge Elimination System (NPDES) permits], and (locations only) of USGS stream flow stations. MPCA lake and stream monitoring stations are the same stations found in MPCA's EQuIS database.

Environmental Data Service & Ecosystem Data Analytics

Simplify your research data collection with trusted environmental data service managed by TERN Australia. We host a diverse range of ecosystem data and environmental datasets, including ecoacoustics, leaf area index, imagery and more. Our environment database supports open science by making research data accessible to scientists, educators, policymakers and decision-makers worldwide. Start exploring today through our easy-to-use tools and portals.

The TERN research data collection provides analysis-ready environmental data that facilitates ecological research projects for both established and emerging scientists from Australia and around the world. The resources we provide support scientific investigation in environment and climate research fields while helping to inform sustainable decision-making initiatives. Access our environmental data service now to power your next research project.

If you’d like to learn more about TERN’s data, tools, or research services – or if you have a specific enquiry – visit the TERN Portal, call us on 07 3365 9097, or email us at tern@uq.edu.au.

Explore our Data Portals

Open access ecosystem data collections are available via the TERN Data Discovery Portal and sub-portals:

Access all TERN Environment Data

Discover datasets published by TERN’s observing platforms and collaborators. Search geographically, then browse, query, and extract data via the TERN Data Discovery Portal.

Search EcoPlots Data

Search, integrate, and access Australia’s plot-based ecology survey data.

Download ausplotsR

Extract, prepare, visualise, and analyse TERN Ecosystem Surveillance monitoring data in R.

Search EcoImages

Search and download Leaf Area Index (LAI), Phenocam, and Photopoint images.

Explore our Data Services

Tools that support the discovery, analysis, and re-use of ecosystem data include:

Visualise the Data

In partnership with ANU, we provide 50 landscape and ecosystem datasets presented graphically.

Access CoESRA Virtual Desktop

A virtual desktop environment that enables users to create, execute, and share environmental data simulations.

Submit data with SHaRED

Our user-friendly tool to upload your data securely to our environment database so you can contribute to Australia’s ecological research.

Other Data Portals, Tools, and Services

The Soil and Landscape Grid of Australia uses the best available data from existing environment databases, new sensor measurements, and innovative spatial modelling. It presents fine spatial resolution (3 arc-seconds or approximately 90 x 90 m pixels) digital soil and landscape attribute maps.

The Australian Cosmic-Ray Neutron Soil Moisture Monitoring Network (CosmOz) delivers soil moisture data for 16 sites covering about 30 hectares, with measurements taken to depths of between 10-50 cm. Led by CSIRO, this ecosystem data network is expanding to 23 sites to provide even greater environmental insights.

The TERN Mangrove Data Portal offers a diverse range of historical and contemporary remotely-sensed datasets on the extent and change of mangrove ecosystems across Australia. It includes multi-scale field measurements of mangrove floristics, structure and biomass, as well as a wide variety of airborne imagery collected since the 1950s, and multispectral and hyperspectral imagery from drones, aircraft, and satellites. This project has been recognised for its contribution to the Sustainable Development Goals and strengthens Australia’s long-term environment database.

TERN’s ausplotsR is an R Studio package designed for extracting, preparing, visualising, and analysing TERN’s Ecosystem Surveillance monitoring data. Researchers can directly access plot-based ecosystem data on vegetation and soils across Australia, using simple functions to merge information into species occurrence matrices for advanced analysis, such as calculating basal area or fractional cover.

The annual Australia’s Environment products summarise large volumes of observations on the trajectory of our natural resources and ecosystems. Through the data explorer, users can view and download maps, accounts, and charts by region and land use type. The portal also provides national summary reports and report cards for different types of administrative and geographical regions, all underpinned by TERN’s trusted environmental data service.

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Our research data collection makes it easier for scientists and researchers to investigate and answer questions by providing them with open data, research and management tools, infrastructure, and site-based research tools.

The TERN Data Discovery Portal provides open access ecosystem data and is a cornerstone of our environmental data service. Our tools support data discovery, analysis, and re-use. The services which we provide facilitate research, education, and management. We maintain a network of monitoring sites and sensor data streams for long-term research as part of our environment database.

By choosing TERN, you gain reliable access to high-quality ecosystem data, curated tools and a leading environmental data service that drives global research and education. Have questions about TERN’s data collections, tools, or services? Connect with our team by visiting the TERN Portal, calling 07 3365 9097, or emailing tern@uq.edu.au for personalised support.

The environmental monitoring devices market, valued at $4760.2 million in 2025, is projected to experience steady growth, driven by increasing environmental regulations, rising awareness of pollution levels, and the growing need for real-time data monitoring across various sectors. The market's Compound Annual Growth Rate (CAGR) of 3.6% from 2025 to 2033 indicates a consistent expansion, fueled by technological advancements leading to more efficient and cost-effective devices. Key growth drivers include the expanding industrial sector, the urgent need for improved water quality monitoring, and the increasing demand for precision agriculture technologies incorporating environmental sensors. Furthermore, government initiatives promoting sustainable practices and investing in environmental protection are significantly bolstering market growth. While the market presents significant opportunities, challenges such as high initial investment costs for sophisticated monitoring systems and the need for skilled personnel to operate and maintain these technologies could pose restraints. Competition among established players like Danaher, Thermo Fisher, and Agilent Technologies, alongside emerging companies, drives innovation and fosters price competition. Market segmentation likely includes different device types (air quality monitors, water quality analyzers, soil sensors, etc.), application areas (industrial, agricultural, environmental research), and geographical regions. Future market growth will depend on continued technological innovation, the adoption of advanced analytics for environmental data, and the increasing integration of IoT (Internet of Things) technologies for remote monitoring and data management. The market’s expansion will also be shaped by evolving regulatory landscapes and growing consumer and corporate demand for environmentally sustainable practices.

The global environmental monitoring systems market is booming, projected to reach $7117.1 million in 2025, with a strong CAGR fueled by rising environmental concerns and technological advancements. Explore market trends, key players (ABB, Horiba, Danaher, etc.), and future growth predictions in this comprehensive analysis.

The stationary environmental monitoring system market is experiencing steady growth, projected to reach a value of $361.4 million in 2025, exhibiting a Compound Annual Growth Rate (CAGR) of 2.5% from 2019 to 2033. This growth is driven by increasing regulatory pressure to monitor air and water quality, coupled with growing environmental awareness among both businesses and consumers. The demand for real-time data and advanced analytics for environmental management is also a significant factor. Key market players like Danaher, Thermo Fisher Scientific, and Xylem Analytics are leveraging technological advancements, including the integration of IoT sensors and AI-powered data analysis, to offer sophisticated and comprehensive monitoring solutions. This trend towards smarter, interconnected systems is expected to propel market expansion. Furthermore, the increasing adoption of these systems in diverse sectors like industrial manufacturing, wastewater treatment, and agriculture contributes to overall market expansion. While the market displays robust growth potential, certain challenges remain. High initial investment costs for implementing comprehensive monitoring systems can be a barrier to entry for smaller businesses. Furthermore, the need for specialized expertise in system installation, maintenance, and data interpretation can pose a hurdle. However, the long-term benefits of reduced environmental risks, improved compliance, and enhanced operational efficiency are expected to offset these restraints, fostering continued growth throughout the forecast period. The market's segmentation, though not explicitly detailed, is likely to include solutions based on the monitored parameters (air, water, soil), technology type (sensors, analyzers, data loggers), and end-user industries. Future market expansion will likely be influenced by technological innovations, governmental policies promoting sustainable practices, and increasing awareness of climate change and its consequences.

The global environmental monitoring solutions market is projected to reach a market value of over USD 25 billion by 2033, expanding at a CAGR of around 7% during the forecast period of 2023-2033. The increasing demand for environmental monitoring to ensure compliance with regulations, rising concerns over environmental pollution, and technological advancements in monitoring and data analysis are the primary drivers of market growth. The market is segmented by type into hardware, software, and application. The hardware segment accounted for the largest market share in 2023 due to the high demand for sensors, data loggers, and other equipment used to collect and transmit environmental data. The software segment is expected to witness significant growth in the coming years due to the increasing adoption of cloud-based solutions for data storage, management, and analysis. The application segment is further divided into government and regulatory bodies, industrial facilities, agriculture and farming, water and wastewater management, mining and resource extraction, transportation and infrastructure, research and academia, environmental consulting and services, and others. The government and regulatory bodies segment held the largest market share in 2023, as environmental monitoring is essential for regulatory compliance and enforcement. The industrial facilities segment is expected to grow at a steady pace due to the increasing need for environmental monitoring to optimize operations and reduce emissions. The agriculture and farming segment is also expected to witness significant growth due to the increasing demand for food safety and quality control. Environmental monitoring solutions play a critical role in safeguarding our planet and ensuring the well-being of future generations. This report provides a comprehensive analysis of the global environmental monitoring solutions industry, examining its key trends, growth drivers, challenges, and leading players.

Monthly air quality and noise data sets for HS2 Phase One as required by the Phase One Code of Construction Practice.

Data to be reviewed in conjunction with the relevant monthly air quality and noise reports: https://www.gov.uk/government/collections/monitoring-the-environmental-effects-of-hs2

HS2 Phase Code of Construction Practice: https://www.gov.uk/government/uploads/system/uploads/attachment_data/file/593592/Code_of_Construction_Practice.pdf