Our design approach for the Ummahat AlShaykh island project, situated in the Red Sea, was deeply rooted in the site’s unique characteristics, fostering a philosophy of seamless integration with the surrounding landscape. Despite the challenges presented by the delicate environment, our site-specific approach guided us in crafting low, horizontally oriented Land Villas with gently curved roofs, mirroring the natural sand dunes.
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Ummahat AlShaykh Island sets new standards in sustainable tourism
In the realm of innovative architecture, few projects rival Ummahat AlShaykh Island in sheer ambition and eco-conscious design. Spearheaded by architect Kengo Kuma and his team, this project is a triumph of sustainability and luxury tourism in the heart of the Red Sea.
The Ummahat AlShaykh Island project is made up of 22 islands located on the west coast of Saudi Arabia and its design philosophy is deeply rooted in respect for the environment. The ambitious masterplan zone is surrounded by yet more islands, miles of sweeping desert and dramatic volcanic landscapes, and developer Red Sea Global (formerly TRSDC) tasked Kengo Kuma with the design of luxury tourist villas and other buildings on one of the project’s islands.
Kuma and his team have opted for a site-specific approach, crafting low, horizontally oriented “Land Villas” with gently curved roofs that mimic the natural contours of the surrounding sand dunes. The design of the villas not only ensures guest privacy but also minimizes sand infill, in an effort to preserves the island’s shape. In addition, taking cues from coral ecosystems, the sea villas situated offshore boast a helical structure that emerges from the sea, providing guests with stunning views across the water.
Helical structures emerge from the sea, providing guests with stunning views across the water
Kengo Kuma and Associates
“Our design approach for the Ummahat AlShaykh island project, was deeply rooted in the site’s unique characteristics, fostering a philosophy of seamless integration with the surrounding landscape,” says Kengo Kuma and Associates. “Despite the challenges presented by the delicate environment, our site-specific approach guided us in crafting [the Land Villas].”
To construct the resort, Kuma opted for the use of sustainable alternatives to traditional construction materials and methods. Prefabrication systems, primarily utilizing spruce timber and clay plaster, were adopted to minimize the use of concrete and reduce the project’s environmental footprint. The roofs are clad with natural cedar wood shingles, specifically chosen for their resilience against harsh weather conditions and salt water.
Villa designs ensuring guest privacy and minimal sand infill to preserve the island’s shape
Kengo Kuma and Associates
In a climate like the one in Ummahat, shade and ventilation are also of vital importance. The architects therefore created roofing that features large cantilevering in all of the dwellings, maximizing the shade area over the entire day.
Moreover, Kuma and his team have taken a proactive approach to environmental conservation by designing buildings that can be disassembled and removed without causing significant damage to the environment. Prefabrication played a pivotal role in achieving this goal, allowing for minimal disruption to the island’s delicate ecosystem.
As part of the Ummahat 9-3 project, Kuma and his firm also designed two specialty restaurants, one on land and one over water; a community building; spa; reception pavilion; housekeeping villas; and a guest jetty.
Villa designs ensuring guest privacy and minimal sand infill to preserve the island’s shape
Kengo Kuma and Associates
Beyond its architectural and environmental achievements, the Ummahat AlShaykh Island project holds broader significance within the context of Saudi Arabia’s Vision 2030 initiative. As part of this ambitious plan to diversify the country’s economy, the project represents a forward-thinking approach to sustainable development and tourism.
Hemp is more sustainable than timber. Industrial hemp is a super crop with one of the world’s longest and strongest plant fibres. In addition to its high performance, it has thousands of uses and boasts second-to-none environmental credentials. Anyhow, here’s how it could transform low-carbon construction.
The image above is for illustration – credit to Hempeyewear.
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Hemp is more sustainable than timber – here’s how it could transform low-carbon construction
Hemp could become a key tool in the fight against climate change. Like timber, hemp is a biogenic material – it’s produced by growing plants. When used to make long-lasting building materials, they provide an effective and low-tech way to reduce carbon emissions because plants absorb carbon dioxide (CO₂) from the atmosphere as they grow. This then gets stored in solid form for the foreseeable future within buildings and cities.
I have estimated that substituting concrete with cross-laminated timber in all new building floor construction globally for the next 30 years, would reduce greenhouse gas emissions by between 20 and 80 million tonnes.
Yet, hemp grows much faster than trees, growing up to four metres within four months, giving it a greater capacity to absorb CO₂ per hectare of farmed land compared to any forest or commercial crop. Industrial hemp can absorb twice as much CO₂ compared to trees, with approximately one hectare of hemp estimated to sequester between eight to 22 tonnes of CO₂ in a year.
Raw hemp fibre can be processed into panels and mats for thermal or acoustic insulation and made into a hemp lime. By mixing raw fibres with mortar and moulding it into blocks, hemp lime can be used as a substitute for concrete blocks in load-bearing walls.
I agree with the argument that biogenic building materials like hemp only delay the inevitable by temporarily absorbing atmospheric greenhouse gases rather than permanently reducing emissions. Any sequestered or stored CO₂ will eventually be released back into the atmosphere when these construction materials and other products reach the end of their life – ideally, after being reused or recycled many times.
But there is real benefit in delaying the rise in atmospheric greenhouse gas concentrations while other mitigation solutions are scaled up around the world. Also, the “embodied carbon” or CO₂e emitted during extraction, transportation and manufacturing stages is lower for hemp-based building materials than for fossil fuel-based materials.
My research into thermal insulation estimates that a 1m² panel of polyisocyanurate (a common synthetic polymer used to insulate roofs and walls) embodies approximately 3.8kg of CO₂e – that’s about 45% more than a hemp insulation panel that transfers heat at the same rate.
Hemp cultivation has direct benefits for the land too. Hemp crops can improve soil health by enhancing activity of soil microorganisms like fungi and nitrogen-fixing bacteria. Hemp’s deep roots help to aerate the soil as they grow and move down into the ground, prevent soil erosion by binding the soil together, reduce soil compaction and enhance overall soil structure and fertility.
Hemp is a fast-growing crop that has deep roots that help improve soil health. jessicahyde/Shutterstock
Hemp can absorb some toxic chemicals and pollutants from the soil through a process called phytoremediation. It can help clean up contaminated soil by absorbing some heavy metals and other harmful substances, thereby detoxifying the soil. Any resulting contaminated harvest is not suitable as a food product but is ideal for use as a building material.
Hemp typically requires less water than other crops. Its deep root system is efficient at taking up water from the soil so hemp crops don’t require much irrigation. A recent study found that the water footprint of cotton is about three times higher than that of industrial hemp. So hemp can be a sustainable choice, especially in regions prone to drought or water scarcity.
Hemp is naturally resistant to many pests and diseases, so scaling up production of this crop could reduce the amount of pesticide chemicals sprayed onto farmland and potentially polluting waterways.
Hemp renaissance
Hemp seeds are a source of protein, while the stems and leaves have been used to make ropes, clothes and baskets since hemp farming began around 10,000 years ago. But despite its many advantages, hemp went out of fashion.
Hemp production expanded during the modern colonial period due to a increase in demand for boats which were mostly made from wood and hemp. By the late 18th century, hemp consumption started declining in the UK. The increasingly mechanised textile sector created an enormous international demand for cotton bolls (the mature fruit of the cotton plant). As a result, colonial plantations in India and ex-colonies in the newly formed US switched their cultivation from hemp to the more profitable cotton.
The introduction of more durable and versatile synthetic petrochemical-based polymers in the 20th century was another blow to hemp. Propaganda campaigns against hemp eventually culminated in strong legal restrictions to its cultivation.
In 2017, a hemp renaissance began when the US government removed hemp from the controlled substances act. Notably, the crop is still formally classified as a controlled substance in UK, requiring a licence from the Home Office for farming hemp, with ongoing campaigns trying to challenge the status quo.
Hemp can be used in many ways within the construction industry, including as insulation. Olga_Ionina/Shutterstock
Modern manufacturing processes now enable raw hemp to compete with petroleum-based polymers in many practical applications, including strong and durable building materials. Unlike synthetic polymers that can release toxic chemicals such as phthalates when they break up in the environment, biogenically sourced materials biodegrade easily without harming the environment.
So, after farming it for thousands of years, hemp is making a comeback onto our plates, clothes and especially into our buildings, ushering in a sustainable revolution in construction practice.
Some hurdles remain. Assuming there is enough available land to meet market demand from competing crops, the higher than average cost of hemp-based building products will likely fall as production scales up. Hemp-based construction technologies are at a very mature stage and perhaps, legislative barriers will be the primary obstacle to a renewed hemp renaissance.
Don’t have time to read about climate change as much as you’d like?
Materials are one of the most vibrant areas of synbio innovation today. However, while fashion and other “fast” consumer markets quickly adapt to the changing trends, architecture has historically been relatively conservative when adopting new technologies. The challenge comes from the fact that architectural materials are long-lasting; therefore, their creators have to use the information we have today to predict how those materials will need to perform in the future. It takes someone with a long-range vision to create materials that will serve our needs a hundred years from now. One such person is Ginger Dosier, co-founder and CEO of Biomason.
Ginger Dosier, Cofounder of Biomason
Dosier, who is the chair of the Chemicals and Materials track at SynBioBeta 2024, is an architect turned biomaterials scientist and entrepreneur. After graduating from Cranbrook Academy of Art, she became interested in how architectural materials were made. She set up a lab in her spare bedroom where she experimented with the early prototypes for Biomason’s biocement®. This incredible technology uses microorganisms as ‘masons’ to literally grow concrete. The nature-inspired process produces concrete that sequesters carbon instead of emitting it.
This ethos—the belief that materials can do more—defines Dosier’s vision for the future of materials: “We’re just at the beginning of questioning what materials can do,” she says. I got a chance to interview Ginger Dosier and ponder some of the questions that she considers on a daily basis, like ‘Will the materials that we make today be able to handle the extreme weather events precipitated by climate change?’ ‘How long will they last in the environment?’ ‘And what are the consequences of their persistence?’
Let’s examine some of those questions and see how synthetic biology can help us reimagine the aesthetics, function, and the lifecycle of architectural materials.
Architectural Materials Lifecycle
Back in 2020, an article in Nature made a staggering estimation that anthropogenic (human-made) mass had surpassed the Earth’s living biomass. If this trend continues, anthropogenic mass is projected to reach 3X the global biomass by 2040. A large portion of that is construction materials like concrete, metal, plastic, bricks, and asphalt. Those materials can last in the environment for hundreds of years, polluting ecosystems and threatening biodiversity.
“Some materials used in construction are meant to last for hundreds of years, while others aren’t meant to last 100 years, but rather serve a role,” says Dosier. “For both, we need to think about the consequences of their persistence in the environment.”
While we cannot stop building new structures, we can change what kinds of materials we use. Dosier believes that architects have a big responsibility when considering the lifecycle of building materials. Until very recently, there was not a lot of information about how materials are made, what they do to the environment, or how long they will last. But today, lifecycle analyses are becoming a lot more prevalent. Companies like Costain out of the U.K. specialize in helping their clients carry out comprehensive assessments and develop strategies for sustainable architectural solutions.
Impact on Biodiversity
The construction industry is number six on the list of industries that generate the biggest environmental footprint. It is responsible for half of the world’s raw resource extraction and contributes up to 50% of all landfill waste. Additionally, buildings have a significant footprint, not just when it comes to greenhouse gas emissions and pollution but also land use. The land we build structures on is the same land that serves as a habitat for plants and animals that we share our planet with, so we must consider the impact of our building practices on biodiversity.
One of the things Dosier proposes is being more cognizant of how we use the available land. For example, we could reduce the footprint of buildings’ foundations with stronger supporting materials, be more selective about what materials touch the ground, and ensure that the materials we use are not hazardous to the environment we place them in.
Decarbonization of Materials
Our buildings account for a staggering 37% of global greenhouse gas emissions. While most of that comes from operational processes, such as heating and cooling, the building materials themselves are significant contributors. Today, materials extraction and refinement are responsible for the majority of the total CO2 emissions. Specifically, concrete, the most widely used material in construction, contributes heavily to our CO2 emissions. Decarbonizing materials is one of the main priorities of the industry today.
[Tanankorn Pilong/Canva]
Dosier thinks that decarbonization can take many forms. The first is replacing extracted raw materials with bio-based alternatives. Suppose those bio-based technologies could manufacture materials from waste CO2 even better. Additionally, we need to think about where those materials are produced. Restructuring global supply chains to produce materials locally could have a substantial impact on reducing greenhouse gas emissions. Finally, developing living building materials that can sequesteratmospheric carbon could reduce the operational carbon footprint of buildings.
Now, let’s explore some technologies that are revolutionizing architectural materials and transforming the buildings of tomorrow.
Biocement for a “Greener” Concrete
Concrete is ubiquitous in construction and one of the biggest culprits behind the industry’s CO2 emissions. Those emissions mostly come from how cement (the binding agent that holds concrete together) is produced today. This problem was at the center of the founding mission of Biomason. Biomason has developed a technology that uses microorganisms to create a cement alternative using a process of solid-state fermentation. In this process, microbes put carbon to work by forming calcium carbonate crystals between aggregate particles, eliminating direct emissions from the cement production process.
An image depicting cement with bacteria acting as the bonding agent. This visual shows a cross-section of concrete where bacteria are forming bonds between aggregate particles (DALL-E)
Biomason is not the only company working to solve the cement material challenge. Prometheus Materials, which was founded by a University of Colorado Boulder professor Wil Srubar, is taking inspiration from the way corals and oysters build their shells. Using microalgae with other natural components, Prometheus has developed a zero-carbon bio-cement and bio-concrete. Minus Materials is another startup that works on decarbonizing cement. They are using algae to create limestone, which is responsible for 60% of the emissions associated with the production of Portland cement. Algae-grown limestone, on the other hand, becomes a permanent carbon sink when it is mixed into cement.
Solugen, a Houston-based company specializing in carbon-negative chemicals, uses a different approach to make concrete production more efficient. The company has created Relox™, a series of concrete admixtures that reduce the use of cement and water in concrete as well as improve the strength of the resulting material. This biodegradable and non-toxic solution is made using enzyme chemistry and renewable feedstocks.
In addition to the polluting production process, the short lifespan of concrete is a major problem for the construction industry. Basilisk in Delft, Netherlands, is tackling this challenge by making self-healing concrete. They do this by embedding special limestone-producing bacteria into concrete that can repair cracks. If the concrete cracks and water seeps in, the bacterial spores germinate. They digest the calcium lactate embedded in the concrete mixture and seal the cracks by producing calcium carbonate.
Biofibers
Concrete is an important construction material, but so are the various types of architectural fibers. “We need fibers in architecture—to reinforce concrete, for example—as well as to make the fabrics of our lives,” says Dosier. She points out that because fibers are used in textiles and fashion, this important class of materials is much more responsive to innovation. Citing the framework presented in Stewart Brand’s book The Clock of the Long Now, Dosier explains that materials used for applications like packaging and clothes are among the fastest levels of innovation. Thanks to the overlap in the use of fibers between textiles and construction, however, the architecture industry is able to take advantage of innovations in those materials.
An Image emphasizing the potential future of architectural fibers [DALL-E]
Some of the leading experts in fiber research come from the German Institute of Textile and Fiber Research. The institute focuses on creating sustainable fiber solutions, such as carbon fibers from lignin, as well as optimizing all aspects of the production chain, from utilizing carbon-negative feedstocks to bringing in Industry 4.0 technologies to establish more efficient manufacturing processes.
In a surprising initiative, Researchers at MIT have pioneered a project to develop lab-grown timber alternatives. This one may sound like a crazy idea at first—after all, trees produce timber, the ultimate carbon-negative technology. However, producing wood locally, in places where it does not normally grow, faster, or in a way that imparts specific material characteristics to it could help create more sustainable supply chains. Additionally, lab-grown timber can reduce deforestation and waste by producing wood in the shape of a finished product.
Another way to think about materials sustainability is by utilizing materials that are already abundant. Unlike trees, kelp grows incredibly fast. Keel Labs is developing seaweed-based fiber with a significantly lower environmental footprint than conventional fibers. This is part of the future-thinking materials strategy, switching from traditional feedstocks that are becoming depleted to others that can take their place:
“We’re starting to see more seaweed overgrowth, like the Sargassum in the Pacific,” says Dosier. “So, our creative response to this is ‘what can we make with it’?”
Paints and Coatings
Finally, important types of materials used in construction are paints and coatings. A lot is happening in that space as well, from companies like DSM, BASF, and Visolis making greener chemicals such as solvents and resins to sustainable bio-based pigments from Nature Coatings, PILI, and others. But Dosier thinks that producing more sustainable alternatives to existing types of materials is just the beginning of what biology can do:
“If we put the power of biology in those types of materials, and maybe they do even more,” she says. “Maybe they also absorb pollution inside of our buildings.”
An example of this type of visionary thinking is an IndieBio accelerator program graduate Pneuma Bio. This company is developing ‘living and breathing materials’ with photosynthesizing algae embedded in them. The technology is currently being developed for fiber and textile applications. Still, its founders envision uses where photosynthetic green microalgae are embedded inside the paints that cover the walls of buildings to sequester CO2 from the air and even generate electricity for the building. This approach gives a whole new meaning to ‘green materials.’
Building a Sustainable Future
“There’s an infinite world of what could be possible when we start to take two subjects like architecture and biology and put them together,” says Dosier.
All it takes is imagination and long-range vision to bring these ideas to reality. However, the practical considerations of bringing new technologies into existing markets include making those products cost-competitive. In order to make bio-based alternatives truly sustainable—not only from an environmental but also economic perspective—companies need to consider what kind of inputs they use.
Dosier is a big advocate of diversifying feedstocks, utilizing waste streams where possible and moving away from aseptic fermentation requirements. In addition to that, she believes we need to incorporate more diverse perspectives when developing new technologies and include local contexts, as opposed to developing ‘one-size-fits-all’ types of solutions: “In my opinion, ubiquity is what got us in trouble in the first place,” she says. “We need a more distributed and diverse perspective on global supply chains and be able to adapt those technologies on a location-to-location basis.”
You can hear more perspectives from Ginger Dosier and other synbio leaders who are driving materials innovation in last month’s episode of the SynBioBeta podcast. And, of course, catch Chemicals and Materials track sessions at SynBioBeta 2024.
More than ever, clients seek designs that prioritize health and sustainability. This growing demand is not just a trend; it’s a paradigm shift that reflects broader societal awareness of how our surroundings affect our well-being and the planet. A recent study by McKinsey & Company and NielsenIQ highlights this shift, revealing that 78 percent of U.S. consumers say that a sustainable lifestyle is important to them.
• 84 percent of contract architects and designers see the demand for healthy spaces and sustainable products significantly increasing in the next two years.
• The “sustainability-first specifier persona” has doubled since 2022.
• 17 percent of architects and designers say sustainability is a top three deciding factor for product selections, up from 8 percent in 2020.
Benefits of Designing for Holistic Well-Being
Holistic well-being encompasses four perspectives: physical, psychological, behavioral, and intellectual. In the context of architecture and design, this means creating spaces that address all aspects of the self (physical, mental, emotional, social, spiritual) and recognizing their interconnectedness and the impact of the built environment on each of these elements.
A recent study conducted by the McKinsey Health Institute, spanning 30 nations and surveying 30,000 workers, highlights the crucial link between employee job satisfaction and performance, and overall well-being. The research underscores the need for companies to rethink work environments and create spaces that foster the holistic health of their workforce.
To that end, architectural and design firms are increasingly incorporating elements to address mental well-being, such as meditation spaces and quiet zones, mothers’ and wellness rooms, biophilic design, water features, access to outdoor spaces, and ample opportunities for movement from gyms to yoga studios and corridors that double as walking tracks.
Architecture and Design’s Powerful Influence
In the built environment, the adoption of sustainable product selection practices is widespread, and with more than 40 times greater purchasing power than the average consumer (as shown by ThinkLab’s Benchmark Report), the architectural and design community has tremendous influence on the demand for ecofriendly building products. And while a smaller portion of the overall design community, the number of “sustainability-first specifiers” has doubled in the past two years, and more broadly, more specifiers consider sustainability a top product selection criterion (17 percent, up from 8 percent in 2020).
Designers are navigating this landscape with innovative materials, energy-efficient systems, and a commitment to reducing the carbon footprint of their projects. The mutual benefit and connected nature of sustainable and human-centered design support an integrated, holistic approach.
Catalysts for Positive Change
As the threads of health, wellness, and sustainability weave together, the tapestry of the future of design unfolds. While the design considerations are many, addressing physical, mental, and environmental health, the industry is up to the challenge, shaping environments that contribute to the well-being of both people and the planet.
Erica Waayenberg, LEED AP, is head of research and content at ThinkLab, the research division of SANDOW. At ThinkLab we combine SANDOW Media’s incredible reach in the architecture and design community through brands like METROPOLIS with proven market research techniques to uncover relevant trends and opportunities for the design industry. View the ThinkLab U.S. Design Industry Benchmark Report for 2024 and ThinkLab’s 5 Specifier Personas for the Interior Design Industry research at thinklab. design, and join in to explore what’s next at thinklab. design/join-in.
Triunity Green: Transforming Deserts into Profitable Agricultural Ventures with Innovative Nanotechnology is not only possible but feasible as per what is described below.
Desertification and land degradation come with a massive economic toll, estimated at up to $15 trillion, and humanity is losing 100 million hectares annually. The UN projects that the vast majority of the world’s…
Desertification and land degradation come with a massive economic toll, estimated at up to $15 trillion, and humanity is losing 100 million hectares annually. The UN projects that the vast majority of the world’s arable land will be completely depleted within 45 to 60 years. With one-third of the Earth’s land being desert, it’s crucial to devise strategies and technologies to rehabilitate regions impacted by human-driven desertification.
In a world facing escalating challenges of soil degradation, desertification, and food security, Triunity Green emerges as a beacon of hope with its revolutionary approach to sustainable agriculture and land management. By harnessing the power of cutting-edge nanotechnology, their innovative methods not only address critical environmental issues but also offer significant opportunities for profitability in the agricultural sector. Triunity Green is revolutionizing the way people think about desert agriculture, offering a sustainable and economically viable solution to the pressing challenges of soil loss, water scarcity, and food security.
Harnessing Nanotechnology to Overcome Desert Challenges
Deserts, with their arid conditions and poor soil quality, have long been considered largely inhospitable to agriculture. However, Triunity Green’s innovative Nano Ionic Biomimetic Matrix is challenging this status quo. Engineered at the nanoscale, this advanced material encapsulates a bespoke powder matrix rich in micronutrients and bioactive agents essential for plant morphogenesis, enabling optimal plant growth even in the harshest desert environments.
“By addressing the inherent challenges of water retention, nutrient availability, and plant growth in sand environments, we are unlocking the agricultural potential of deserts, creating the opportunity for profitable ventures that contribute to global food security and economic development.” explains a spokesperson for Triunity Green.
Sustainable and Profitable Agriculture in Desert Landscapes
Triunity Green’s innovative approach to desert agriculture aims to create thriving ecosystems capable of producing abundant and nutritious food. By optimizing water management and nutrient delivery through their Nano Ionic Biomimetic Matrix, Triunity Green can achieve substantial resource conservation, reducing water consumption, fertilizer usage, and energy expenditure by up to 70%. “Desert agriculture has the potential to be both sustainable and profitable,” says the spokesperson. “This innovative technology not only makes it possible to grow crops in desert environments but also offers significant economic benefits, stimulating investment, job creation, and economic growth in regions previously considered unsuitable for agriculture.”
A Paradigm Shift in Sustainable Agriculture
By pioneering advancements at the nexus of nanotechnology and plant science, Triunity Green is heralding a new epoch in agriculture. Their interdisciplinary innovation ensures biomechanically superior anchorage and nuanced control over hydric and nutritional dynamics, transforming ordinary sand into a rich and sustainable soil-like analogue.
Triunity Green represents a groundbreaking advancement in the field of sustainable agriculture. “Our methods not only revolutionize the landscape of sand-mediated phytotechnologies but also pave the way for unparalleled precision in both sustainable and restorative agriculture. This marks a significant paradigm shift in the symbiotic relationship between plants and engineered substrates, setting new standards for profitability and environmental stewardship,“ says the spokesperson in Triunity Green.
Empowering Communities Through Sustainable Development
In addition to transforming deserts into profitable agricultural ventures, Triunity Green is committed to empowering local communities through sustainable development and education. By partnering with local governments, organizations, and farmers, Triunity Green fosters community engagement and capacity building, equipping people with the knowledge and resources they need to participate in and benefit from sustainable agricultural practices.
“Community engagement is at the heart of our mission,” emphasizes the spokesperson. “By empowering local communities to participate in sustainable desert agriculture, we are creating opportunities for economic growth, social development, and environmental stewardship, fostering a brighter and more prosperous future for all.”
Investing in a Sustainable Future
As the global community grapples with the urgent need to protect and restore the natural environment, the adoption of profitable and sustainable methods becomes increasingly crucial. By accelerating the transition to innovative solutions that prioritize both environmental sustainability and profitability, it can ensure a brighter and more prosperous future for all.
“As stewards of our planet, we must recognize that our existence is intricately linked to the health and vitality of our soil and environment,” emphasizes the spokesperson. “By leveraging biomimicry and investing in advanced scientific technologies, we can elucidate the intricacies of natural ecosystems and develop innovative solutions that foster a synergistic, profitable, and sustainable coexistence between humanity and the environment.”
Triunity Green is committed to creating a sustainable future by developing innovative technologies and practices that restore and regenerate the natural environment and urban landscapes. With a focus on creating regenerative, resilient, and profitable agricultural and urban land management systems, Triunity Green aims to address the pressing challenges of soil degradation, desertification, urbanization, and food security through the application of cutting-edge nanotechnology and plant science.
– our new study may warn us of future climate tipping points Martin H. Trauth, University of Potsdam; Asfawossen Asrat, Addis Ababa University, and Mark Maslin, UCL Image of Capitano Footage / shutterstock Around five and half millenia ago, northern Africa went through a dramatic transformation. The Sahara desert expanded and grasslands, forests and lakes favoured […]
. By Sanjana Gajbhiye Earth.com staff writer For centuries, desert travelers have relied on oases as life-giving sanctuaries. These pockets of green have sustained communities, fueled trade, and sparked imaginations. Yet, oases are under pressure. New research exposes the delicate balance between human intervention and natural forces such as desertification shaping the fate of these vital ecosystems. What is […]
Prefacing such a book is no small feat. You have to get into the swing of things, and whether it’s Moorish or Turkish, it doesn’t matter; the main thing is the feverish, friendly and vaporous atmosphere that reigns in the hot room, the quality of its accessories, such as the “kèssa”, the “tassa”, the “bligha” […]
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