‘The world is transitioning away from fossil fuels’

‘The world is transitioning away from fossil fuels’

pinwheels, nature, energy, electricity, renewable, wind energy, sunset, wind farm, dusk, trees, landscape by distelAPPArath via pixabay

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‘The world is transitioning away from fossil fuels’: Gulf oil investors turn to African renewables

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FILE - An aerial view of a solar power plant in Ouarzazate, central Morocco on Feb.4, 2016.

Copyright AP Photo/Abdeljalil Bounhar, File

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By Angela Symons with AP
Published on 

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Gulf oil money is flowing into African renewables – and the Iran war is only accelerating the trend.

Investors made wealthy by the Middle East’s abundant oil and gas increasingly are turning to Africa’s clean energy sector. They are attracted by rising electricity demand, rapid urbanisation and the continent’s growing role in global supply chains tied to critical minerals and manufacturing.

A report released last month by the Clean Air Task Force found that more than $101.9 billion (€88.8bn) had flowed into Africa’s renewable energy sector from Gulf countries by the end of 2024, led by the United Arab Emirates, Saudi Arabia, Qatar, Kuwait and Bahrain.

Middle Eastern sovereign wealth funds and state-backed companies are unlikely to scale back these renewable energy investments, despite disruptions from the Iran war, analysts say, given the strong long-term economic and strategic reasons driving such funding.

Much of the investment has been concentrated in North Africa, Southern Africa and parts of East Africa, while West Africa has attracted relatively limited funding.

“Africa remains one of the few regions where demand growth is unequivocal,” says Matthew Tilleard, chief executive of CrossBoundary Energy, a Nairobi-based firm that develops and operates renewable energy projects.

“Short-term shocks may delay individual transactions, but the biggest infrastructure opportunities require a long-term view of risk and value.”

Africa faces one of the world’s largest electricity gaps. About 600 million people across the continent still lack access to power and many more face unreliable supplies.

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FILE - Mark Munyua, CP solar's technician, examines solar panels on the roof of a company in Nairobi, Kenya, Sept. 1, 2023.
FILE – Mark Munyua, CP solar’s technician, examines solar panels on the roof of a company in Nairobi, Kenya, Sept. 1, 2023. AP Photo/Brian Inganga, File

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Iran war strengthens case for African renewables

Governments have increasingly turned to private investors to help finance solar, wind and hybrid power projects to expand generation capacity without overstretching public finances. That gap has created opportunities for Gulf investors looking to diversify beyond oil and gas.

“Ultimately, Gulf investments in Africa tend to be driven by pragmatic national interests and strategic returns,” says Louw Nelson, a political analyst at Oxford Economics.

“There is currently a significant amount of energy investment underway across Africa, which are long-term projects that have been years in the making, so we don’t anticipate major disruptions.”

Overseas investments in renewable energy form part of broader strategies among Middle Eastern countries to diversify their economies and adapt to a global shift toward cleaner energy.

Europe is also vying for influence in Africa’s energy sector. As part of the EU’s Global Gateway sustainable infrastructure initiative pledged €618 million in October 2025 specifically to scale up renewables in Africa.

Joab Okanda, an energy and development analyst, says the disruptions to oil and gas shipments due to the war with Iran may strengthen the case for renewable energy investment since they show how vulnerable such supply routes can be.

“These companies, many of them state-owned, hold significant capital but also understand that the world is gradually transitioning away from fossil fuels,” Okanda says. “Investing in renewable energy allows them to diversify their portfolios and position themselves for the energy systems of the future.”

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Wanted: An Electrical Grid Powered by Renewables

Wanted: An Electrical Grid Powered by Renewables

Aerial view of a large solar panel array generating renewable energy. by Bl∡ke via pexels

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Wanted: an electrical grid that runs on 100% renewable energy

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Margaret Harris

Physics World – 17 March 2026

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Wanted: An Electrical Grid Powered by Renewables

An array of wind turbines and a set of solar panels in a landscape

(Courtesy: Shutterstock/hrui)

With the conflict in Iran and the resulting closure of the Strait of Hormuz pushing oil and gas prices upwards, the prospect of a world that runs on 100% renewable energy seems even more attractive than usual. Before we can get there, though, experts in a range of fields say we’re going to need to solve a few physics problems – including one that goes straight back to Maxwell’s equations.

Unlike energy that comes from processes such as burning fossil fuels, sending water downhill through turbines, or harnessing the heat from nuclear reactions, the supply of wind and solar energy varies in ways we cannot control. To complicate matters further, consumer demand also varies, and the two variations “do not necessarily match in time or in space,” observes Michael Jack, a physicist at the University of Otago in New Zealand.

Speaking on Monday at the American Physical Society’s Global Physics Summit in Denver, Colorado, Jack explained that there are two ways of making sure demand matches supply in an all-renewable grid. The first is to smooth out demand over time, for example by storing energy in batteries and using it when the wind isn’t blowing or the Sun isn’t shining. The second is to smooth out demand over space, for example by creating a grid that connects large numbers of consumers. “It’s very unlikely that all consumers’ demand will peak at the same time,” Jack noted.

To understand how peak demand scales with the number of consumers, Jack and his colleagues are using tools from an area of mathematics called extreme value theory. As its name implies, the goal of extreme value theory is to understand the probability of events that are either extremely large or extremely small compared to the norm. Once we can do that, Jack told the APS audience, we’ll be able to build renewable energy systems that deal efficiently with periods of peak demand.

“The opposite of quantum mechanics”

Another speaker in the same session, Charles Meneveau, is working on the supply side of the variability problem. As a fluid dynamics expert at Johns Hopkins University in Maryland, US, his goal is to understand how turbulent gusts of wind lead to fluctuations in the power output of wind farms – a problem he described as “the opposite of quantum mechanics” because “it’s intuitive and we feel like we understand it, but we can’t compute it”.

Meneveau and his collaborators began by building a micro-scale wind farm, sticking it in a wind tunnel and monitoring how it behaved. More recently, they’ve added computer simulations to the mix, generating around a petabyte of simulated turbulence data.

As expected, these studies showed that the power output of an array of turbines fluctuates much less than the output of a single turbine. However, an array’s output does spike at intervals set by the rotation frequency of the turbine blades, and also when gusts of wind propagate from one turbine to the next. Meneveau has developed a model that can predict this second type of spike, and he’s now working to extend it to floating offshore wind farms, which experience watery turbulence as well as the windy kind.

Everything under control

The third speaker in the session, Bri-Mathias Hodge, is an energy systems engineer at the University of Colorado, Boulder. He’s interested in ways of ensuring that renewable energy systems remain stable in the face of disturbances that could otherwise send the grid into a tailspin, leading to blackouts like the one that struck the Iberian Penninsula in 2025.

In traditional grids dominated by thermal energy sources, Hodge explained that one of the main ways of maintaining stability is to use devices called synchronous machine generators. These are essentially large rotating masses that all spin at the same rate: the frequency of the grid, which in the US is 60 Hz. When coupled to an AC power system, they give the system a degree of inertia, enabling it to resist potentially damaging fluctuations in the supply of electricity.

These devices have existed for 100 years, and Hodge says our current power system is designed around them. But because renewable energy generation is primarily DC rather than AC, an all-renewable grid will require a fundamentally different approach. “We have to reimagine what the system looks like when we have 100% renewable energy,” Hodge told the APS audience.

The solution, Hodge explained, is to replace synchronous machine generators with electronic inverters. These devices have the advantage of reacting much faster to system fluctuations. However, they also come with a big disadvantage. Unlike massive spinning objects that follow ponderous Newtonian physics, they don’t react automatically. They have to be told, and Hodge says that will require completely different control systems than the ones used in today’s electrical grids.

Return of Maxwell’s equations

While studying this problem, Hodge realized that the engineers who designed electrical grids back in the 1960s made an important simplifying assumption. Because they were working with a system composed entirely of thermal, synchronous generators (and because they were doing all their calculations with slide rules), they treated voltage as being separate from frequency, even though the two are inherently coupled. In other words, they treated the grid as an electromechanical network rather than an electromagnetic one.

To understand how this simplification plays out in a renewable-dominated grid, Hodge and colleagues went back to Maxwell’s equations. Specifically, they focused on what these equations have to say about the momentum associated with a mass that is moving around in an electromagnetic field. In an electrical grid controlled by large inertias from thermal generators, this momentum isn’t important. But in a renewable-dominated grid, Hodge says it can’t be ignored.

He and his colleagues have therefore developed a new model of electric power networks that highlights the significance of this electromagnetic momentum and restores the link between frequency and voltage dynamics. Ultimately, though, Hodge says that avoiding blackouts in an all-renewable energy system will require advances in simulation technologies. “We need to improve our decision-making processes on a whole range of timescales, from seconds to years,” he concluded.

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New Cooling Strategy Helps MENA Countries Adapt

New Cooling Strategy Helps MENA Countries Adapt

Facade of a building with numerous air conditioners installed on apartment windows. by dh tang via pexels

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New Cooling Strategy Helps MENA Countries Balance Rising Heat and Climate Targets

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A new framework developed by UNEP and partner organisations helps Middle East and North Africa countries create National Cooling Action Plans to meet rising cooling demand while cutting energy use and emissions. The approach promotes efficient technologies, better building design, renewable energy and stronger cold chains to expand cooling access and improve climate resilience.

Science & Environment

CoE-EDP, VisionRI

16-03-2026

New Cooling Strategy Helps MENA Countries Balance Rising Heat and Climate Targets

As temperatures rise across the Middle East and North Africa (MENA), governments and international organisations are exploring new ways to meet growing cooling demand without worsening climate change. A new framework for National Cooling Action Plans has been developed through collaboration between the United Nations Environment Programme (UNEP) Cool Coalition, the Regional Center for Renewable Energy and Energy Efficiency (RCREEE), the Climate and Clean Air Coalition, Sustainable Energy for All (SEforALL), the United Nations Development Programme (UNDP), the African Development Bank Group and the Cool Up programme. Researchers from institutions including the American University in Cairo worked alongside technical experts from UNEP and RCREEE to design the methodology, which helps countries plan sustainable cooling systems that support both development and climate goals.

Why Cooling Is Becoming a Critical Issue

Cooling has become a major challenge across the region. Many MENA countries face extremely high temperatures during the summer, often exceeding 50°C in some areas. These conditions increase demand for air conditioning in homes, offices, hospitals and public buildings. Cooling is also essential for preserving food, transporting agricultural products and safely storing medicines and vaccines.

However, access to cooling is uneven. Many low-income households and rural communities still lack reliable electricity or affordable cooling equipment. This leaves vulnerable populations exposed to heat-related health risks and reduces productivity for people working in hot environments. At the same time, cooling demand is expected to grow rapidly as populations increase, cities expand and climate change intensifies heatwaves.

If this demand continues to rely on traditional air conditioning systems powered by fossil fuels, electricity consumption and greenhouse gas emissions could rise sharply. Many cooling systems currently in use also depend on refrigerants that contribute significantly to climate change.

A Strategy to Expand Cooling Without Increasing Emissions

To address these challenges, the new framework promotes National Cooling Action Plans as a key policy tool. These plans help governments coordinate policies across sectors such as energy, construction, agriculture, healthcare and industry. The goal is to expand access to cooling while improving efficiency and reducing environmental impacts.

National Cooling Action Plans allow countries to set clear targets for energy-efficient cooling technologies, climate-friendly refrigerants and improved cooling access. They also encourage cooperation between different government ministries, private companies, research institutions and civil society organisations.

By coordinating policies and investments, governments can create a clear roadmap for sustainable cooling while attracting financing and private-sector participation. This approach also helps align cooling policies with national climate commitments and development goals.

Smarter Buildings and Better Cooling Technologies

The report highlights several solutions that can make cooling more sustainable. One important approach is to reduce the need for mechanical cooling in the first place. Buildings designed with better insulation, shading, reflective roofs and natural ventilation can stay cooler even in hot climates. Urban planning measures such as planting trees and creating green spaces can also help reduce temperatures in cities.

Improving the efficiency of cooling equipment is another major step. New air-conditioning systems use advanced compressors and smart controls that consume much less electricity than older models. Governments can encourage these technologies by introducing stronger efficiency standards and clear energy labels that help consumers choose better-performing appliances.

Responsible refrigerant management is also essential. Many air conditioners and refrigerators contain chemicals that can leak into the atmosphere and contribute to global warming. Proper installation, maintenance and recycling systems can significantly reduce these emissions.

Strengthening Food Security and Climate Resilience

Cooling is not only about comfort in buildings. It is also critical for food systems and healthcare. Efficient cold chains, which include refrigerated storage and transport, help prevent food spoilage and reduce losses for farmers and distributors. Reliable cooling is equally important for storing vaccines and medicines safely.

Renewable energy can further support sustainable cooling solutions. Solar power, geothermal systems and hybrid renewable technologies can provide low-carbon electricity for cooling equipment. In remote areas, solar-powered refrigeration systems can expand cooling access while reducing dependence on fossil fuels.

A Path Toward Sustainable Cooling

The framework outlines a step-by-step process for countries to develop their cooling plans. Governments begin by analysing national conditions such as climate patterns, energy systems and cooling demand across different sectors. They then identify priority actions, including energy-efficient technologies, renewable cooling solutions and policies that support better building design.

The final stage focuses on implementation and monitoring, ensuring that progress can be tracked and policies improved over time. For a region increasingly affected by extreme heat, sustainable cooling strategies could play a major role in protecting public health, strengthening food systems and reducing energy pressures.

With coordinated planning, technological innovation and international cooperation, the MENA region has an opportunity to transform cooling from a growing environmental challenge into a key part of climate resilience and sustainable development.

FIRST PUBLISHED ON: Devdiscourse

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Yemen: Rebuilding Urban Life Amid Conflict Challenges

Yemen: Rebuilding Urban Life Amid Conflict Challenges

Aerial view showcasing the traditional architecture of a historic town in Yemen with iconic towers and desert landscape. by Mohammad Hadi via pexels

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Yemen: Rebuilding Urban Life Amid Conflict

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World Bank Group – 13 March 2026

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Sanaa, Yemen. Adobe istock
Street view in Sana’a, Yemen.  Adobe Stock Images

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STORY HIGHLIGHTS

  • About 19.5 million people, including 15 million women and children, need humanitarian aid, two-thirds lack access to safe water and sanitation, and healthcare services struggle to meet immense needs.
  • To address these challenges, the World Bank launched the Yemen Integrated Urban Services Emergency Project (YIUSEP) in November 2017, with an initial $150 million commitment.
  • The project focused on restoring essential urban services across multiple cities.
Yemen’s cities have borne the brunt of over a decade of conflict, with widespread destruction of infrastructure. Waste collection services have halted, urban roads have been destroyed, and critical facilities are without power. The consequences for Yemeni citizens are stark: About 19.5 million people, including 15 million women and children, need humanitarian aid, two-thirds lack access to safe water and sanitation, and healthcare services struggle to meet immense needs.To address these challenges, the World Bank launched the Yemen Integrated Urban Services Emergency Project (YIUSEP) in November 2017, with an initial $150 million commitment. The project focused on restoring essential urban services across multiple cities.YIUSEP’s first phase, concluded in 2020, achieved remarkable results:

  • Supported 3 million beneficiaries to regain access to basic urban services.
  • Generated 1.5 million person-days of work.
  • Restored 240 km of roads.
  • Provided 1.2 million people with access to water, sanitation, and hygiene (WASH) services.

Key Factors Driving Success

YIUSEP’s success is rooted in its innovative and strategic approach, which has set a benchmark for urban recovery projects in conflict-affected regions:

  • Balanced Regional Approach: Efforts were carefully distributed across Yemen’s diverse regions, ensuring equitable support to cities regardless of their geographic or political contexts. This inclusivity fostered a sense of fairness and maximized the reach of interventions.
  • Flexibility Amid Conflict: The program’s ability to adapt to rapidly changing conditions, including conflict flare-ups and security challenges, ensured continuity in delivering essential services even in the most volatile situations.
  • Community Engagement: Local experts, local governments, and communities were directly involved in assessing needs and shaping interventions. This participatory model not only ensured that solutions were tailored to local realities but also empowered communities to take ownership of the recovery process.
  • Evidence-Based Planning: By leveraging data and conducting comprehensive needs assessments, YIUSEP ensured that resources were allocated efficiently and prioritized based on urgency and impact.
  • Integrated Urban Planning: The project recognized the interconnected nature of urban services and approached restoration efforts holistically, ensuring sustainable and synergistic outcomes across sectors.

Responding to Yemen’s Evolving Needs

Despite significant achievements, Yemen’s urban infrastructure and service delivery challenges remain immense. As the conflict continues, rapid urbanization, projected to double the urban population by 2030, strains cities already struggling to provide basic services. Climate change exacerbates these challenges, with increased flooding, drought, and heat waves threatening urban life.

Because the challenges persist, the second phase of YIUSEP—a $195 million effort approved in 2021—is now underway. It’s moving ahead well and is on track to deliver substantial results, including:

  • Bringing water, sanitation, and hygiene (WASH) services, better roads, and reliable energy to 3 million people
  • Reducing flood risks for 350,000 people
  • Strengthening local institutions so cities can deliver services sustainably

Strengthening Local Institutions

YIUSEP emphasizes capacity building to ensure the long-term success of urban recovery efforts. The project collaborates with local partners whose capabilities have been weakened by conflict —organizations like the Public Works Project (PWP), the Road Maintenance Fund Implementation Unit (RMF-IU), City Cleaning and Improvement Funds (CCIFs), and the Urban Water Project Management Unit (UW-PMU). Through needs assessments and training, these partners are being prepared to play a leading role in Yemen’s post-conflict recovery.

Tackling Climate Change and Natural Disasters

Yemeni cities face increasing risks from climate change. Recent floods have caused extensive damage to infrastructure and cultural heritage sites, disrupting humanitarian aid and compounding challenges. YIUSEP II incorporates climate resilience into its projects by upgrading flood protection systems, enhancing stormwater drainage infrastructure, and creating climate risk-informed urban plans. These efforts not only mitigate current vulnerabilities but also equip cities to better withstand future natural disasters. Supported by a Bank-Executed Trust Fund financed by the Quality Infrastructure Investment Partnership (QII), climate risk assessments for 16 cities have identified vulnerabilities, guiding efforts to prioritize the critical infrastructure and improve their design.

Reviving Solid Waste Management Services

The conflict has devastated Yemen’s solid waste management (SWM) sector. Infrastructure damage, funding shortfalls, and low service quality have led to environmental and public health risks. To address these challenges, YIUSEP has:

  • Provided cleaning equipment to City Cleaning and Improvement Funds (CCIFs).
  • Launched a Results-Based Financing (RBF) intervention, supported by the Global Partnership for Results-Based Approaches (GPRBA), to improve SWM services in the cities of Aden, Sana’a, and Mukalla.

The RBF initiative incentivizes municipalities to expand waste collection, enhance financial sustainability, and improve institutional performance. This approach transitions the SWM sector from emergency mode to pre-crisis operations.

Looking Ahead

The Yemen Integrated Urban Services Emergency Project demonstrates the resilience of cities, communities and the potential for recovery even in the face of immense challenges. By restoring critical services, building local capacities, and addressing climate and urbanization pressures, the project paves the way for a brighter future for Yemen’s cities and their residents.

Moving forward, YIUSEP aims to:

  • Expand Partnerships: Strengthen collaboration with international and regional organizations to leverage technical expertise and funding, ensuring the project’s sustainability and scalability.
  • Innovate in Service Delivery: Integrate advanced technologies, such as geographic information systems (GIS) and digital tools, to enhance urban planning and disaster management capabilities.
  • Focus on Long-Term Resilience: Transition from emergency interventions to long-term urban development strategies that address the root causes of urban vulnerabilities.
  • Empower Local Communities: Promote greater involvement of local stakeholders, including women and youth, by establishing community advisory groups and facilitating skill-building workshops. These initiatives aim to foster leadership roles within communities, ensuring inclusive and sustainable urban recovery.
  • Monitor and Evaluate Impact: Establish robust monitoring and evaluation mechanisms to measure the effectiveness of interventions and continuously improve project outcomes.
  • Link to Global Efforts: Align recovery efforts with global initiatives, such as the Sustainable Development Goals (SDGs) and the Paris Agreement, emphasizing resilient cities and climate action.

These initiatives underscore the World Bank’s commitment to supporting Yemen in rebuilding sustainable, resilient, and vibrant urban communities that can thrive in a post-conflict era.

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Circular Economy in Construction: A New Approach

Circular Economy in Construction: A New Approach

Discover the stunning design of this modern architectural marvel set against a clear blue sky. by Omar Elsharawy via pexels

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Circular Economy in Construction: Practical Steps Beyond Recycling in 2026

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Published in Greener Ideal

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 The impact of construction is both visible and invisible, from skylines dotted with cranes to the massive, often unseen, consumption of global resources. Part of the problem is the industry’s traditional “take-make-waste” linear model. Companies extract raw materials, then use them to build structures that are later demolished and sent to landfills. A circular economy changes the narrative. This innovative system involves designing out waste, extending product life cycles and regenerating natural systems.

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Circular Economy in Construction: Practical Steps Beyond Recycling in 2026

 

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Why Construction Must Change

The industry accounts for roughly 40% of global resource extractions. This level of removal puts immense strain on ecosystems and depletes finite materials.

Construction also accounts for around 37% of global carbon emissions. The pollution comes from manufacturing supplies, their transport, the building process itself and the energy used to operate buildings. On top of that, it produces about a quarter of the planet’s solid waste, from extraction to demolition and disposal.

Core Circular Economy Principles

Circular Economy in Construction: Practical Steps Beyond Recycling in 2026
Image source: Unsplash

Circularity is not just one action. It’s a new way of thinking applied to every stage of a building’s life. The circular economy principles in construction have three actionable themes:

  • Intelligent design: This is about preventing waste from the start. Some examples include designing standard-sized materials to reduce offcuts and using mechanical fasteners instead of chemical adhesives for easier dismantling.
  • Life cycle extension: This focuses on keeping materials and products at their highest possible value for as long as possible. It typically involves prioritizing reuse, repair, refurbishment and remanufacturing components before considering recycling.
  • Material innovation: This involves choosing materials that are safe, sustainable and can be perpetually cycled. Selecting non-toxic elements that can be returned to the biosphere and developing new resources from waste streams are great examples.

Preventing Waste Through Proactive Design

Design for deconstruction is the practice of creating buildings like intricate puzzles. Every piece can be taken apart and used again, which requires creating a detailed dismantling plan alongside the construction plan.

Many developers use building information modeling (BIM) to create a digital twin of the physical building. The model contains detailed data on every component — its material composition, manufacturer and installation method — which is invaluable for future repair and deconstruction. These details make construction waste management easier and more efficient down the line.

Major industry standards, such as LEED, are also actively promoting the circular economy. The LEED rating system now incentivizes a whole-building approach to material life cycles by offering credits for designing for disassembly. Earning these credits provides developers with a competitive advantage, enhances brand reputation and meets growing client demand for verifiably sustainable infrastructure.

The Next Generation of Sustainable Building Materials

Consider these material innovations that are enabling the circular economy in construction.

Carbon-Sequestering and Biodegradable Options

Mass timber structures act as carbon sinks, storing carbon throughout the building’s life. A great example is a nine-story project by the startup Intelligent City, which is set to become the Grand Toronto Area’s tallest mass-timber residence upon its completion. It combines a concrete core with glue-laminated timber posts and cross-laminated timber for all floors, walls and the building envelope. It reduces concrete use by 75% and uses prefabricated, pre-insulated panels, dramatically cutting down construction time and embodied carbon.

Another promising sustainable building element is mycelium. It’s a rapidly renewable resource grown from fungal roots. It can be formed into panels and blocks for insulation and non-structural walls. Mycelium is also fully biodegradable at the end of its life.

Solving the Plastics Problem

No construction waste reduction plan is complete without an approach to plastics management. Due to their complex polymer properties, plastics are difficult to recycle. Many developers are working on changing that, formulating recycling processes designed to reduce waste and harmful emissions.

These processes can transform waste into durable construction products. Consider plastic lumber for decking and outdoor furniture or insulation boards made from recycled plastic bottles.

Extending the Equipment Life Cycle

Heavy construction machinery has a significant environmental footprint due to the embodied carbon from its manufacturing. Equipment life cycle management can reduce that. Modern technology, like Internet of Things sensors and telematics on equipment, enables predictive maintenance. This involves fixing a part before it breaks, which prevents costly downtime and catastrophic failures.

Remanufacturing is another excellent high-level circular strategy that’s distinct from simple repair. In construction equipment, it involves completely disassembling, cleaning and rebuilding a component to its original factory specifications, often with a warranty. This provides “as new” performance at a lower cost and with a lower environmental impact. It also significantly cuts repair time in the shop compared to waiting for a part to be rebuilt from scratch. Ultimately, this keeps valuable materials in circulation and minimizes the need for resource-intensive new production.

What’s Next for Circular Construction?

Many emerging technologies and policies can make this more sustainable model the norm.

  • Material passports: Linked to the BIM model, these digital “birth certificates” for building materials provide a transparent record of the products’ properties, making reuse easier.
  • Policy and economic drivers: Governments are beginning to implement policies such as the Extended Producer Responsibility and the Green Public Procurement rules, which favor circular projects.
  • Environmental, social and governance goals (ESG) and client demand: Major corporate clients are under pressure to meet their ESG goals. They’re now demanding verifiably sustainable and circular buildings for their headquarters and data centers.

Building a Circular Future, One Project at a Time

The circular economy is a comprehensive evolution for the construction industry. Moving beyond simple recycling, it involves intelligent design, material innovation and extending the life cycle of both buildings and equipment. With these strategies, the industry is making measurable progress toward a more sustainable and less wasteful tomorrow.

 

Rose Morrison is a sustainability advocate with 10 years of writing experience specializing in sustainable construction, green building practices and eco-conscious home solutions. As managing editor at Renovated Magazine, she brings her expertise to Greener Ideal, championing innovative approaches to reduce environmental impact through intentional design choices, renewable materials, and energy-efficient technologies that empower readers to create healthier homes and a healthier planet.