Iraqis cover their soil with clay to curb sandstorms

Iraqis cover their soil with clay to curb sandstorms

The Image above is a Close-up of cracked, arid soil showing detailed textures and patterns, indicative of drought conditions.  By James Frid via pexels

.

Iraqis cover soil with clay to curb sandstorms

Published on Phys.org

Iraq has long suffered from sand and dust storms, but in recent years they have become more frequent and intense as the country falls prey to the effects of climate change

Iraq has long suffered from sand and dust storms, but in recent years, they have become more frequent and intense as the country falls prey to the effects of climate change.

Deep in Iraq’s southern desert, bulldozers and earthmovers spread layers of moist clay over sand dunes as part of a broader effort to fight increasingly frequent sandstorms.

Iraq has long suffered from sand and dust storms, but in recent years they have become more frequent and intense as the country falls prey to the effects of climate change.

Sand and dust storms—driven by severe drought, rising temperatures and deforestation—have cloaked cities and villages in an endless ocher haze, grounded flights and filled hospitals with patients suffering from breathing difficulties.

Iraqi authorities have warned that these suffocating storms will intensify further, adding urgency to address the root of the problem.

In a relatively small area between the cities of Nasiriyah and Samawah, not far from ancient Sumerian ruins, laborers are working hard to stabilize the soil by applying a layer of moist clay 20–25 centimeters thick.

The project also includes planting heat-tolerant seedlings like Prosopis and Conocarpus to further stabilize the soil.

Between the cities of Nasiriyah and Samawah, not far from ancient Sumerian ruins, labourers are working hard to stabilise the soil by applying a layer of moist clay

Between the cities of Nasiriyah and Samawah, not far from ancient Sumerian ruins, labourers are working hard to stabilise the soil by applying a layer of moist clay.

“The main goal is to reduce the impact of transboundary dust storms, which may reach Kuwait, Saudi Arabia and Qatar,” said Udai Taha Lafta from UN-Habitat, which is leading the project to combat sandstorms with Iraqi expertise.

“It is a vital area despite its small size, and will hopefully help reduce dust storms next summer,” Lafta said.

A short-term objective is to shield a southern highway where many traffic accidents have occurred due to poor visibility during dust storms.

‘Slow but steady’

The Ministry of Environment estimates that Iraq now faces about 243 storms per year, and the frequency is expected to increase to 300 “dust days” by 2050 unless drastic mitigation measures are adopted.

In 2023, Iraqi authorities teamed up with the UN-Habitat and the Kuwait Fund for Arab Economic Development in areas that have been identified as major sources of sandstorms.

The project has been implementing several methods in three southern areas, including digging water canals and supplying electricity to pump water from the Euphrates river, preparing barren lands for vegetation.

A short-term objective is to shield a southern highway where many traffic accidents have occurred due to poor visibility during dust storms

A short-term objective is to shield a southern highway where many traffic accidents have occurred due to poor visibility during dust storms.

One of the project’s ultimate goals is to increase green spaces and for farmers to eventually sustain the lands after droughts and chronic water shortages have drastically reduced agricultural areas.

Qahtan al-Mhana, from the agriculture ministry, said that stabilizing the soil gives agricultural efforts in sandy areas a chance to endure.

He added that Iraq has extensive “successful” experience in combating desertification and dust storms by stabilizing sand dunes.

Since the 1970s, the country has implemented such projects, but after decades of turmoil, environmental challenges have largely fallen by the wayside.

With the severe recent impact of climate change, “work has resumed,” said Najm Abed Taresh from Dhi Qar University.

“We are making slow but steady progress,” Taresh said.

© 2025 AFP

*


 

*

Forging a human-centred future in the era of smart machines

Forging a human-centred future in the era of smart machines

Smartphone displaying AI app with book on AI technology in background.  By Sanket Mishra via pexels

 

Forging a human-centered future in era of smart machines

Published in Inkunming 29 December 2025

.

The world of work stands at a historic point, shaped by a confluence of transformative mega-trends. The accelerated technological revolution, marked by artificial intelligence, is converging with demographic shifts, green transition, and the evolving expectations of workers. This complex transformation is redefining the very nature of work, creating unprecedented opportunities while posing significant challenges of job displacement, skills mismatches, and inequality. For China, a nation with a workforce exceeding 800 million and at the forefront of technological adoption, navigating this shift is not just an economic necessity but a critical determinant of future social well-being.

The scale and pace of change are profound. While technologies like AI may automate certain routine and analytical tasks, they simultaneously generate demand for new roles. The greater risk is not a net loss of jobs, but a disruptive gap between the skills workers possess and those the future economy requires. According to the ILO, this deepening structural skills mismatch can lead to “tech-rich, job-poor” growth, where productivity increases do not translate into broad-based, quality employment. For young people, this paradox can be even more acute: their hard-earned qualifications from colleges may become obsolete, if curricula fail to keep pace with technological and industrial evolution. Therefore, the focus must shift from preserving specific jobs to future-proofing careers through adaptable skill sets.

In this context, China’s strategic foresight, as embodied in the upcoming 15th Five-Year Plan (2026-30), offers a crucial framework for navigating this structural challenge. With its emphases on industry-employment synergy, new occupation cultivation and lifelong vocational training, the recommendations for the plan provide a proactive, human-centered response. The country’s policy direction is aligned with the ILO’s human-centered agenda for the future of work. The success of this framework hinges on the execution through systemic, agile, and inclusive measures.

First, reinforcing lifelong learning as an accessible and dynamic ecosystem. The recommendations’ commitment to investing in people and promoting lifelong vocational training is fundamental. The ILO advocates for systems that are responsive, agile and co-created with key stakeholders, which can result in lower youth unemployment and smoother school-to-work transitions. China has made significant efforts, having provided government-subsidized training to over 100 million persons in recent years. The next phase involves deepening a structured flexible system where skills acquisitions are recognized and portable. The piloted credit banks in cities and industries are a case in point. Workers and citizens can open accounts at credit banks and deposit scores after taking courses to apply for skills qualifications. Employers linked to the credit banks can identify potential employees with right skill sets. Expanding such mechanism to encourage upskilling and reskilling is essential.

Second, tightening partnerships between industries and training providers for greater industry-employment synergies. Structural employment challenges arise when curricula in universities and vocational schools lag behind industrial innovations. Nurturing of new occupations like robotics technicians and sustainability analysts must be co-led by industries. Encouraging industries’ involvement in setting sectoral skills councils, developing curricula, providing adjunct faculty and work-based opportunities prove to be quite effective. For example, the collaboration between Huawei’s ICT Academy and thousands of schools to provide digital skills training and certification demonstrates how industry can align education and training with labor market needs. Scaling such models, with a focus on SMEs, is vital.

Finally, emphasizing transferable core skills is key for resilient workforce.

According to a study, now half of the skills people acquired through education and training may start to depreciate just within five years. While technical, job-specific skills are necessary, they are easier to fall behind labor market changes than ever before. The ILO advocates for a renewed focus on transferable core skills that enable individuals to adapt to the ever-changing environment: how to think and analyse, how to quickly learn and create, and how to effectively communicate for teamwork. Especially, the green transition in parallel with the technological transformation requires young and adult workers to foster foundational green literacy and competencies for industrial sustainability. These are precisely the skills that complement AI, not compete with it. Education and training systems need to ingrain these competencies from basic education onwards, ensuring that every citizen is equipped with the cognitive, interpersonal and sustainable toolkits to navigate multiple career shifts.

In conclusion, the disruptive potential of the technological revolution on the labor market is real, but it is not deterministic. Policy choices today will shape tomorrow’s outcomes. China’s recommendations for the 15th Five-Year Plan provide a visionary blueprint for investing in people, which resonates strongly with the ILO’s call for a human-centered future of work. By implementing a robust, inclusive and partnership-driven lifelong learning ecosystem, China can transform challenges into opportunities. The goal must be to harness technology not for displacement, but for augmentation — augmenting human capabilities, creating more rewarding work, and driving sustainable development. This path will not only promote high-quality full employment for China but also offer valuable insights for the global community striving to ensure social justice in the era of intelligent machines.

*

 


 

 

 

*

Top green projects and sustainability innovations in 2025

Top green projects and sustainability innovations in 2025

Image for illustration. The colourful architecture of Kuggen building in Gothenburg, Sweden, showcases Nordic design innovation. By Efrem Efre via Pexels

.

Architecture’s top green projects and sustainability innovations in 2025

 

 

As part of Archinect’s 2025 Year in Review series, we are looking back at the highlights across our news coverage of architecture’s top green projects and sustainability innovations. Advancements in materials science, building technology, digital tools, and the application of sustainability measures in projects across a variety of contexts and scopes have been closely covered throughout the year. Here is a selection of stories that stood out.

Image credit: Van Peng/Unsplash

Construction materials could store billions of tons of CO2, study finds

In January, researchers at the University of California, Davis and Stanford University published a study highlighting the potential for construction materials to store billions of tons of carbon dioxide. The study evaluated the feasibility of carbon sequestration in materials, such as concrete, asphalt, plastics, wood, and brick. The researchers analyzed various approaches, including adding biochar into concrete, using artificial rocks that can be loaded with carbon as concrete and asphalt pavement aggregate, and including biomass fiber into bricks. Concrete emerged as the most impactful material for carbon storage due to its prevalence.

Image credit: Pepe Fotografia

ecoLogicStudio creates algae garden inside historic Turin industrial building

London-based design innovation company ecoLogicStudio created a biophilic facility called the Design Apothecary in Turin, Italy, that centers around a fully functional, air-purifying algae garden. The garden consists of 17 photosynthetic reactors, which support a system that absorbs carbon dioxide at a rate equivalent to the work of four large trees. The 2,700-square-foot, open-plan space contains spaces dedicated to bio-lab research, artistic, and sustainable design experimentation.

Image: pexels / Kinga Balogh

Northwestern University researchers develop approach to create carbon-negative cement and concrete

Researchers from Northwestern University developed a carbon-negative building material made using seawater, electricity, and carbon dioxide. It was designed to be an alternative source of the calcium- and magnesium-based minerals that comprise materials, such as cement, concrete, paint, and plasters. The process of making the material was likened to the way coral and mollusks form their shells. It can reportedly hold over half its weight in carbon dioxide.

Corgan’s Sacramento International Airport (SMF) – Central Terminal B project. Image credit: Corgan

Corgan launches free mass timber carbon calculator

Texas-based architecture firm Corgan unveiled a tool in April that aims to improve the accuracy of carbon accounting in mass timber construction. Emissions from wood harvesting and transport, as well as the decomposition of tree residues, are often overlooked. The Corgan Mass Timber Carbon Calculator seeks to assist architects and designers in estimating carbon emissions specific to mass timber projects. The free tool allows for more informed material choices from early project phases.

Image courtesy: Canada Council for the Arts

Canada unveils bio-responsive installation at the Venice Biennale

Canada opened its national exhibition at the 2025 Venice Architecture Biennale with Picoplanktonics, an innovative project that features large-scale 3D-printed structures embedded with live cyanobacteria, microorganisms capable of sequestering carbon dioxide from the atmosphere. Presented by the Canada Council for the Arts and developed by the Living Room Collective, the exhibition explores the potential of a regenerative design approach. The exhibition features a custom biofabrication platform developed at ETH Zurich. It also requires on-site caretakers to maintain the living elements.

Image: Turenscape

Sponge city concept mitigates flood risk at Turenscape’s Huaiyang Fuxi Cultural Park

Beijing-based practice Turenscape designed a public park in Zhoukou, China, that utilizes the natural topography of the site to create a water-resilient landscape. The project called Huaiyang Fuxi Cultural Park utilizes the sponge city concept, in which natural landscapes provide flood prevention and stormwater management by catching, storing, and cleaning water. The park comprises numerous islands made from recycled dirt and debris. It also stands out through a series of crater-shaped pocket gardens that each host a variety of programs and activities. A bio-water treatment system was also included and is capable of purifying roughly 11,500 tons of water daily.

Massive Form and Carsey3D envisioned a prefabricated bridge for the city of Paris. Visualization by Fortes Vision. Image Courtesy of Masoud Akbarzadeh and Massive Form

Penn researchers unveil carbon-capturing bridge prototype in Venice

Researchers from the University of Pennsylvania unveiled a modular, prefabricated bridge prototype called DIAMANTI that merges advanced geometry and robotic fabrication. The prototype is currently on display at the European Cultural Centre’s Time – Space – Existence exhibition in Venice. It utilizes a structural method known as Polyhedral Graphic Statics, which allows for a lightweight, high-performance structure that uses fewer materials, while maintaining structural integrity. DIAMANTI also includes prototypes of an additive that increases surface porosity and boosts the material’s ability to absorb atmospheric carbon dioxide.

Image courtesy: Lib Work

Inside Japan’s first earth-based 3D-printed home

Japanese housing firm Lib Work completed Japan’s first 3D-printed house made mainly from soil. Called Lib Earth House Model B, the 1,000-square-foot project, located in Yamaga, Kumamoto Prefecture, also marks a step forward for what the company claims will be the world’s first fully AI-powered automated home construction system. The home was developed in collaboration with Arup Japan, Ogawaa Design Studio, and Kyotani Architectural Design Office. The firm claims the structure is five times stronger than its predecessor, with reduced emissions as it’s built from naturally derived materials instead of cement.

Image credit: Rodolfo Quirós

Researchers develop ‘supercool cement’ to reduce AC reliance in buildings

An academic research team in China developed a new type of cement that integrates passive daytime radiative cooling. This ‘supercool cement’ could potentially reduce the dependence of concrete buildings on air conditioning while cutting embodied carbon emissions. Using alumina- and sulfur-rich compounds, the cement creates reflective crystals on its surface during production, allowing it to reflect more sunlight away than traditional concrete mixes.

Image courtesy of MVRDV

MVRDV launches free tool to tackle embodied carbon in building design

In November, MVRDV released a free, web-based tool called CarbonSpace that aims to help architects address embodied carbon during the earliest stages of design. Developed by MVRDV NEXT in collaboration with Studio AvW, the platform uses quantity estimates and simplified data to inform design decisions and track the carbon impact of materials and systems. MVRDV uses the tool on its own portfolio as it progresses towards 2030 climate goals.

Be sure to follow Archinect’s special End of the Year coverage by following the tag 2025 Year In Review to stay up to date.

 

.


 

 

.

 

.

How Sustainability Is Reshaping International Logistics

How Sustainability Is Reshaping International Logistics

Sunset over a bustling seaport filled with stacked shipping containers and cranes. By Tom Fisk via pexels

.

From Carbon Footprint to Trade Profit: How Sustainability Is Reshaping International Logistics

.

By Global Trade

December 23rd, 2025 | Written by Atharva

Global trade has long been the backbone of economic growth, but in recent years, it has faced mounting pressure to operate more sustainably. As environmental awareness grows and climate policies tighten, international logistics, the system that moves goods across borders is undergoing a major transformation. What was once focused purely on speed and cost efficiency is now being redefined by sustainability goals. Interestingly, these green initiatives are not just about reducing emissions but they are also becoming a source of long-term profitability and competitiveness for businesses worldwide.

Read also: How Sustainable Packaging Solutions Improve Efficiency in Global Trade

The Shift Toward Sustainable Logistics

For decades, the logistics industry has been a major contributor to global carbon emissions. Ships, airplanes, and trucks powered by fossil fuels have driven the global economy, but at a steep environmental cost. Growing concerns about climate change and stricter environmental regulations have pushed logistics companies to rethink their operations.

Sustainability is now seen as an essential business strategy rather than a moral obligation. Companies are investing in energy-efficient fleets, eco-friendly packaging, and smarter supply chain management systems. This transition reflects a broader understanding that reducing environmental impact can also lead to operational savings and stronger trade performance in the long run.

Green Innovations in Transportation

The transportation sector forms the core of international logistics, and it’s where much of the sustainability progress is happening. Shipping companies are adopting cleaner fuels such as liquefied natural gas (LNG), biofuels, and even exploring hydrogen-powered vessels. Meanwhile, airlines are experimenting with sustainable aviation fuels (SAF) that reduce lifecycle carbon emissions.

On land, electric and hybrid trucks are being increasingly deployed for short and medium-distance transport, while rail networks are being expanded to move freight in a more energy-efficient manner. Many logistics hubs are also investing in renewable-powered infrastructure, using solar energy to operate warehouses and charging stations.

These innovations not only cut emissions but also help companies reduce dependency on volatile fossil fuel prices. As fuel efficiency improves, logistics providers are discovering that green investments often pay off through lower long-term operating costs.

The Role of Digitalization in Sustainability

Digital transformation has become a crucial enabler of sustainable logistics. Technologies such as artificial intelligence (AI), the Internet of Things (IoT), and data analytics are being used to optimize routes, monitor fuel consumption, and minimize waste. Predictive analytics helps in forecasting demand accurately, preventing overproduction and reducing unnecessary shipments.

Blockchain technology is enhancing transparency across global supply chains, allowing companies to track products from origin to destination. This transparency ensures accountability and helps identify inefficiencies that contribute to carbon emissions. By combining data insights with automation, logistics firms can make smarter decisions that benefit both the environment and their bottom line.

Economic Opportunities in Going Green

Contrary to the misconception that sustainability increases costs, many companies are discovering that eco-friendly logistics can enhance profitability. Efficient energy use, reduced waste, and smarter transportation strategies lead to significant cost savings. Moreover, consumers and partners are increasingly favoring businesses with strong environmental credentials, strengthening trade relationships and brand value.

Sustainable logistics also opens doors to new markets. Governments and international organizations are offering incentives, tax benefits, and funding for companies that invest in green technologies. Businesses that align their operations with global sustainability goals are not only reducing risks but also positioning themselves as leaders in a rapidly changing trade environment.

Building a Resilient and Responsible Future

The movement toward sustainability is also strengthening global supply chain resilience. By reducing reliance on carbon-intensive transport modes and fossil fuels, companies are better equipped to handle market fluctuations, energy shortages, and environmental regulations. Additionally, the shift encourages regional production and shorter supply routes, which further reduce emissions and increase reliability.

As international logistics evolves, collaboration among governments, corporations, and technology providers becomes increasingly vital. Joint efforts in policy development, innovation, and infrastructure will determine how effectively the world transitions toward a low-carbon global trade system.

Conclusion

The future of global logistics lies in the intersection of sustainability and profitability. What began as a response to environmental concerns has become a driver of innovation, efficiency, and long-term growth. From carbon-neutral shipping to AI-powered route optimization, every green step is reshaping how goods move across the world.

Ultimately, sustainability is no longer just about reducing the carbon footprint but it’s about creating a smarter, more resilient, and more profitable global trade ecosystem for generations to come.

Sustainable water initiatives in MENA projects and technologies

Sustainable water initiatives in MENA projects and technologies

Peaceful beach scene with ocean waves and wind turbines at sunset, showcasing renewable energy. by Christian Himmel via pexels

.

Sustainable water initiatives in MENA

NatureAsia Published

24 December 2025

.

As water scarcity deepens across MENA, wastewater use is emerging as a solution.  We look at projects and technologies being adopted across the region.

Rasha Dewedar

The As-Samra wastewater treatment plant, Jordan. Credit: Jake Lyell/ Alamy Stock ImagesThe As-Samra wastewater treatment plant, Jordan. Credit: Jake Lyell/ Alamy Stock Images
The Bahr El Baqar wastewater plant in Egypt recycles more than five million cubic metres of water every day for agricultural use daily for farmland. Yet across the region, many similar facilities are either operating partially, unfinished, or abandoned.The Middle East and North Africa region has 14 of the world’s top 20 water-scarce countries. This challenge, driven by climate change, urbanization, and population growth, demands reliable and sustainable solutions.

 

Wastewater Treatment (WWT) removes pollutants, microorganisms, and chemical toxins, making water safe for reuse. Plants often combine two or more technologies to reach the required quality, depending on costs, purpose, and environmental factors.

 

Conventional methods for WWT deliver results quickly but are energy-intensive, whereas extended methods are nature-based systems, like lagoons and reed beds, that require more land but consume less energy and require minimal maintenance.

 

Why plants fail

 

One of the main challenges for wastewater treatment in MENA is cost.

 

“Many WWT plants in MENA have been constructed but never operated close to capacity, or shut down,” says Sammy Kayed, co-founder of the Environment Academy at the Nature Conservation Center, American University of Beirut.

 

Energy is another challenge. Treatment plants require more energy, especially in hot climates, explains Mostafa Hadei, Assistant Professor of Environmental Health Engineering at Tehran University.

 

Looking for smarter Solutions

 

Efforts are already in place to overcome the challenges and introduce innovations in WWT. Between 2018 and 2022, the International Water Management Institute (IWMI) launched ‘ReWater’, a regional project aimed at expanding water reuse in Egypt, Jordan, and Lebanon. The project addressed cultural resistance, outdated regulations, and the lack of financial models for cost recovery.

As one of the ReWater project partners, the International Center for Agricultural Research in the Dry Areas (ICARDA), has experimented the usage of wastewater on specific crops and soil to reach the best techniques for irrigation systems, at the Sarapium Wastewater Treatment Plant in Ismailia, Egypt.

 

ReWater MENA launched the National Analysis of Water Reuse Potential in Irrigation, offering a technical and governance guidance to the potential of water reuse in Lebanon and the potential of its manifestation in the current political and economic context.

Kayed suggests nature-based solutions that benefit both people and the planet. This method usually involves Reeds, coarse grasses that grow in wet areas, and is used as a cheap method to treat liquid waste.

 

“One promising method I’ve worked on is lagoons and reed beds,” says Kayed. “If designed carefully, they can operate relatively passively at a fraction of the cost and are best suited for irrigation of orchards”.

 

Hadei says that the broader adoption of WWT depends on comprehensive planning, strong public-private partnerships, financial incentives, and applying “fit-for-purpose” treatment that cleans water only as much as needed for its intended use.

 

Sustainable Practices 

 

Building on the ReWater project, IWMI launched ReWater+ in Egypt, Jordan, and Morocco, as part of the Near East and North Africa Water Scarcity Initiative. The project involves multiple partners and stakeholders collaborating to analyze costs, benefits, and social impact.

 

“Reuse projects often reduce emigration from rural areas, fix soil, and increase employment rates, which in turn offer financial gains,” says Youssef Brouziyne, the International Water Management Institute’s (IWMI) MENA representative. In the Bahr El Baqar  project operational costs are optimized at every step, and revenue is diversified through selling byproducts. The plant was launched Bahr El Baqar in 2021, and  treats 5.6 million cubic meters of water per day to cultivate more than 400,000 acres in Sinai.

 

Integrating local capabilities is another factor in ensuring sustainability. “WWT plants can produce biogas from sludge to lower energy costs, and nutrients can be recovered and reused in agriculture,” says Hadei.  The As-Samra plant in Jordan, for example, produces almost 80% of its required operational energy from biogas and hydropower, while generating bio-solids for fertilizer and fuel.

 

Other projects highlight the social dimension of water reuse, like the SafeAgroMENA project by IHE Delft, running in Egypt, Lebanon, Iraq, and the Netherlands. The project employs an interdisciplinary approach to provide safe water for agricultural use, helping small-scale farmers reuse treated wastewater safely, according to Hadeel Hosney, the project leader.

“SafeAgroMENA is economically relevant and sustainable, as it conducts comprehensive assessments from a technical, political, and socio-economic perspective,” says Hosney. This practice allows the development of tailored, nature-based solutions using local materials from target countries.

 

Digital innovation is also shaping the sector, including decision-support, earth observation, and data analytics tools, all powered by AI. Such tools offer valuable insights into wastewater’s supply and demand, and recommend water reuse accordingly, in countries like the United Arab Emirates, Saudi Arabia, and Egypt.

.


 

.

.