A 3D printed chair called “Ta.Tamu” has been unveiled as a proof of concept, demonstrating the potential of digital twins, generative design, and additive manufacturing in revolutionizing traditional design methods. The chair was created through a four-year collaboration between Dassault Systèmes and French designer Patrick Jouin, using Dassault’s 3DEXPERIENCE platform. Inspired by biomimicry and the human body, the chair features a lattice structure that minimizes material usage, weighing only 3.9 kg. The design was created using an AI-powered virtual twin, allowing for real-time simulation and optimization of complex components. The result is a fully functional chair that weighs 75% less than a traditional chair and can support 100 kg. The project aims to promote a generative economy, encouraging industries to adopt more sustainable and efficient design and production methods. According to Patrick Jouin, the goal is to “create more efficiently while producing less waste, right from the design process.”

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Biomimicry, recognized by ISO, is an approach that solves modern challenges by drawing inspiration from natural mechanisms perfected over millions of years. By observing and studying nature, researchers, engineers, and architects design efficient and sustainable innovations. Examples include the Japanese Shinkansen train, which was redesigned to reduce noise and improve energy efficiency by mimicking the shape of a kingfisher’s beak. Velcro was also inspired by nature, with its designer studying how burdock sticks to fabrics and fur. The Eastgate Center in Zimbabwe was designed to mimic termite mounds, reducing energy consumption by up to 90%. Biomimicry also has an ecological vocation, such as studying the Namib Desert beetle to develop materials that collect water in arid environments. By imitating life, we can reveal considerable potential for efficient and sustainable solutions, combining respect for the planet with technological advancements. By observing and studying nature, we can transform our challenges into opportunities and unlock the “wisdom” of life. This approach has the potential to address climate and energy crises, and its applications are vast and promising.

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The influence of nature on composition can take many forms, and biomimicry is a design methodology that seeks to emulate and abstract solutions from natural systems and structures. In electroacoustic composition, biomimicry can provide a novel approach to composing music by translating scientific concepts into musical materials and structural elements. The biomimicry design process involves examining the problem’s context, reframing it within a biological context, and abstracting biological strategies into design-centered approaches.

Biomimicry differs from sonification, which directly maps extrinsic data to sound, and soundscape composition, which focuses on the communicative potential of sound. Biomimicry prioritizes metaphorical biologisation and the emulation of natural processes, allowing for greater freedom in processing and transforming sound objects. The composition “cdot” by Daniel Blinkhorn is an example of biomimicry in electroacoustic music, using biomimetic techniques to translate scientific concepts into musical materials and structural elements.

Biomimicry offers a new modality to engage with and represent nature in electroacoustic composition, and its application has the potential to overcome the reliance on personal reflections and pre-existing material. The use of biomimicry in music can lead to innovative and flexible forms of environmentally attuned sonic practice, opening new avenues within established fields of music that commune and engage with nature.

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Festo, an automation specialist, has developed a miniature flying object called the BionicBee, inspired by the flight of bees. The BionicBee is a micro aircraft that can navigate tight spaces and operate as part of a swarm. With a wingspan of 240mm and weighing just 34 grams, it is the smallest flying object in Festo’s Bionic Learning Network. The team used additive manufacturing (AM) to create the flying object’s frame, which was a challenge due to the need for a lightweight yet robust structure. They partnered with EOS and used their Fine Detail Resolution (FDR) technology to 3D print the frame with a high level of precision and detail. The result was a 85% reduction in part weight without compromising performance. The BionicBee can beat its wings at 15-20 Hz and has four degrees of flapping freedom, allowing it to maneuver tight spaces and fly in a swarm. The project showcases the potential of high-resolution AM in lightweight design and has implications for various industries, including aerospace, automotive, and medical applications.

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Biomimicry is the practice of imitating natural biological designs or processes in engineering and invention. Janine Benyus, co-founder of The Biomimicry Institute, believes that nature is full of genius solutions to problems that humans can learn from. By observing how nature solves problems, we can apply those designs to innovations in various fields. Examples of biomimicry include down-filled coats inspired by geese, Velcro fasteners modeled after burrs, and wind turbines shaped like whale fins. Benyus’ book, “Biomimicry: Innovation Inspired by Nature,” highlights fundamental observations of the natural world, such as nature’s use of sunlight, energy efficiency, and recycling. She emphasizes the importance of paying attention to nature’s solutions and taking instruction from them. By learning from nature, we can create innovative and sustainable solutions to our problems. Benyus’ work encourages us to appreciate and learn from the natural world, and to apply its principles to create a better future. By embracing biomimicry, we can develop new technologies and products that are inspired by nature’s genius.

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Project Ara is a design project that utilizes air as a primary material, harnessing its power through biomimicry to create innovative and sustainable design objects. The project’s creators use a special process to trap air within a lightweight, foam-like structure inspired by natural forms and systems. This approach allows for the creation of strong, yet extremely lightweight objects that are both functional and aesthetically pleasing. The material can be shaped, colored, and finished in various ways, making it versatile for use in modular furniture, architectural elements, and other applications. Project Ara’s focus on sustainability is evident in its use of minimal raw resources, reduced waste, and lower carbon footprint. By mimicking nature’s efficient designs, the project achieves impressive engineering feats with minimal material. The result is a collection of practical and beautiful products that push the boundaries of modern design. Project Ara’s innovative approach offers a powerful example of how creativity and biomimicry can lead to breakthroughs in sustainable design.

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Biologist Janine Benyus, who popularized the term “biomimicry” in 1997, discusses her favorite biomimetic innovations and the potential of nature-inspired design to solve sustainability challenges. She highlights solutions from the Biomimicry Global Design Challenge, such as a living filtration system that redistributes nutrients to plants and a “nurse ring” of seeds that facilitate seedling growth. Benyus also mentions breakthroughs in fuel cells, wind power, and LED lighting inspired by nature. She emphasizes the potential of biomimicry to transform cities and social innovation, and notes that her consultancy, Biomimicry 3.8, is working with cities and companies to redesign spaces to produce ecosystem services.

Benyus advises established organizations to start by identifying areas where biomimicry can add value, such as reducing energy use or toxins. She notes that biomimicry can unlock development potential and lead to novel solutions. Benyus also discusses the potential of 3D printing and social applications of biomimicry, such as learning from nature’s cooperation and self-organization strategies to improve leadership and management. Overall, Benyus sees biomimicry as a key approach to creating a more sustainable and resilient world.

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The concept of biomimicry, which involves learning from nature to solve human problems, has been gaining momentum globally. Examples of biomimetic innovations include the Shinkansen Bullet Train inspired by the Kingfisher’s beak and the Eastgate Building in Zimbabwe modeled after termites’ self-cooling mounds. However, our Western scientific paradigm, rooted in rationalism, has limitations in understanding nature. It separates content from context, marginalizing relationships within ecosystems. This approach has led to an incomplete understanding of nature, emphasizing individualism and competition over interconnectedness.

A more nuanced understanding of nature reveals that all aspects of life are in a continual dialogue, sensing and responding to each other. This participatory way of life requires a deeper engagement with nature, beyond analytical examination. Biomimicry must go hand-in-hand with a deeper understanding of the interconnectedness of life, embracing scientific, sensuous, and spiritual aspects. By doing so, we can transform our relationship with nature and address the root causes of our unsustainable way of life, rather than just treating symptoms. A more holistic approach is necessary to create a more sustainable future.

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Metalmark Innovations, a Boston-based startup, has developed an indoor air purification system inspired by the structure of butterfly wings. The system uses a thin coating of metal oxides and nanoparticles to destroy pollutants, making it more effective and energy-efficient than traditional systems. This technology is an example of biomimicry, a growing field where startups use nature’s designs to address sustainability challenges. Other companies, such as Werewool and Cypris Materials, are also using biomimicry to create innovative products, such as biodegradable fibers and non-toxic colorants.

However, the use of nanomaterials in these products raises concerns about their safety and potential environmental impacts. Researchers argue that biomimicry innovations are likely safer because they stabilize nanomaterials within structures, preventing them from being released into the environment. To mitigate risks, biomimicry researchers can use green chemistry and biodegradable materials. Synthetic biology, used by some startups, also raises concerns about genetically modified organisms and social disruption. Despite these challenges, biomimicry has the potential to drive sustainable innovation and improve human health and the environment.

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The increasing use of Wireless Sensor Nodes (WSNs) requires a reliable and efficient power source. Energy harvesting from ambient sources, such as airflows, is a promising solution. Miniature wind turbines can be used to power WSNs, but their efficiency is limited by their small size. The power coefficient of small turbines is typically low, around 10-30%, due to the low Reynolds numbers and laminar flow near the blades. To improve efficiency, researchers have explored biomimicry, using nature-inspired designs such as whale flippers and owl wings. The maple seed specimen is particularly interesting, with a power coefficient of 59% at Reynolds numbers similar to those of centimetre-scale turbines. By reverse-engineering the maple seed design, researchers aim to create more efficient turbine blades. The study presents the design process, fabrication, and performance testing of a miniature wind turbine inspired by the maple seed. Preliminary results show promising performance, with potential applications in powering WSNs and other small devices. Further research is needed to optimize the design and improve efficiency, but biomimicry offers a promising approach to advancing miniature wind turbine technology.

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Iris van Herpen’s new collection is inspired by James Lovelock’s Gaia theory and oceanic ecosystems, representing planetary interconnectedness. The avant-garde range features silhouettes that mimic fluid marine movements and fragile underwater lifeforms, resulting in extraordinary wearable art. Van Herpen combines biotechnologies like Spiber’s Brewed Protein fiber with traditional couture techniques to create innovative garments. The collection includes wave-like silk formations preserved in resin, jellyfish-inspired constructions using Japanese airfabric and carbon fiber, and coral-textured surfaces achieved through laser-cut fermented proteins. A bespoke oceanic fragrance, developed by Francis Kurkdjian, complements the designs. Van Herpen’s technical mastery and material experimentation push the boundaries of fashion, capturing moments of aquatic transformation in her garments. The collection showcases her unique approach to biomimicry fashion, blending technology and traditional craftsmanship to create stunning, otherworldly pieces. The result is a truly immersive and thought-provoking fashion experience.

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The construction industry is a significant contributor to global carbon dioxide (CO2) emissions, accounting for 25% of the UK’s total greenhouse gas emissions. The production of building materials, such as fired clay bricks, is a major source of CO2 emissions. To reduce emissions, there is a need to adopt more sustainable building materials and techniques. One approach is to revive traditional earth construction methods, which use mud as a primary building material. Earth is an abundant, accessible, and sustainable material that can be used to build walls, roofs, and floors. However, its durability is limited, and it requires stabilization techniques to improve its strength and resistance to water.

Termites have been found to construct durable and rigid structures using soil and their saliva, which contains glycoproteins. These glycoproteins can be used as a natural and sustainable stabilizer for earth construction. Biomimicry, the practice of emulating nature’s patterns and strategies, can be applied to develop innovative and sustainable solutions for the construction industry. By studying the techniques used by termites and other organisms, researchers can develop new methods for stabilizing earth and reducing CO2 emissions in the construction sector.

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Researchers from the University of Akron have proposed a new framework for artificial intelligence (AI) inspired by nature. The framework, called biomimicry, aims to create AI systems that are energy-efficient, ethically responsible, and ecologically embedded. The researchers argue that current AI systems prioritize scale and speed over sustainability, and that a more intentional approach to designing AI systems is needed. By studying natural systems and emulating their efficiency and sustainability, the researchers believe that AI can be designed to be more beneficial and less harmful to the environment.

The framework also addresses questions of ethics and human-AI interaction, suggesting that AI should incorporate principles such as empathy, cooperation, and humility. The researchers propose that biomimicry can help address these challenges by serving as a guide for how AI might evolve in ways that are aligned with life on Earth. The study has been recognized with a Best Oral Presentation Award and will be presented at the Ethics & AI Conference. The researchers hope that their framework will contribute to the development of more sustainable and beneficial AI systems.

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The EHL Institute of Nutrition R&D applies nature-inspired designs to tackle nutrition challenges through biomimicry, an approach to innovation that seeks solutions to human challenges by emulating nature’s patterns and strategies. Biomimicry technology allows for significant reduction in prototyping and experimentation phases by leveraging 3.8 billion years of evolution. This approach has led to novel, groundbreaking concepts, such as new methods of water harvesting and filtration, energy generation, and sustainable products.

Examples of biomimicry innovations include a hydrodynamic magnet system inspired by cicada wings and caterpillar sounds, Sharklet Technology that prevents microorganism growth, and Notpla’s biodegradable packaging made from algae and seaweed. Other examples include Mikoks, a liquid fungicide that mimics plant defense mechanisms, and Helicoid Industries’ composites inspired by the mantis shrimp’s durable club.

Biomimicry is an underused opportunity to drive innovation, sustainability, and growth in business, and can guide research and development, start-ups, and corporations in creating disruptive innovations. The biomimicry design process is iterative and requires a multidisciplinary team to turn ideas into market-based solutions. By applying biomimicry principles, companies can create regenerative and resilient solutions that benefit future generations.

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The Shellscape pavilion is a sustainable architectural marvel that combines technology, innovation, and digital fabrication. Located at the Hochschule Anhalt’s Dessau campus in Germany, the pavilion showcases a new paradigm of sustainable construction. The project aims to rethink material waste in construction and manufacturing by using reclaimed wood and biobased plastics. Inspired by turtle shell geometry, the pavilion’s design features a lightweight structure with a multi-layered shell composed of modular segments.

The pavilion was created using cutting-edge computational tools and robotic fabrication methods, including parametric modeling, robotic milling systems, and augmented reality technologies. The structure demonstrates the potential of automation and human creativity to coexist and craft a smart, adaptive, and sustainable building. The Shellscape pavilion is the result of a PhD research project that encourages innovation through hands-on experimentation and interdisciplinary collaboration. Visitors can experience the pavilion’s remarkable fusion of robotic technology, sustainable materials, and innovative design, and see how the future of architecture is taking shape through sustainable and eco-friendly practices. The project sets a precedent for academic institutions to lead innovation in sustainable design.

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There is no content to summarize. The text appears to be a promotional message encouraging readers to become a PRIME member to access full stories and industry information. It mentions that corporate members and TexPro subscribers can access PRIME content using their existing login credentials. However, there is no actual content provided to summarize. If you’d like to provide the actual content, I’d be happy to help summarize it to 200 words for you.

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Biomimicry, the practice of designing systems inspired by biological processes, has led to innovative technological advancements. However, the field of social biomimicry, which seeks to apply natural principles to social and economic systems, lacks critical assessment and rigor. To reach its transformative potential, social biomimicry must evolve through empirical experimentation and analysis. Nature is often romanticized as a source of ethical guidance, but morality is a human construct. Instead, social biomimicry should focus on understanding the material benefits of natural processes and adapting them to human systems.

To do this, researchers must consider factors like scale, sector, geography, and culture when translating natural processes into human contexts. For example, gift economies may work well for local food systems, but not for healthcare. By analyzing natural systems and their potential human analogues systematically, social biomimicry can design new economic and political models that adapt over time. Examples like the Kalundborg Ecopark in Denmark demonstrate the potential of empirical biomimicry in action. Ultimately, social biomimicry should prioritize studying and translating natural processes into human systems, rather than relying on analogy or ideology.

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Project Ara is a design research project that explores the use of inflatable structures as packaging methods. Inspired by biomimicry, the project uses air to create lightweight, adjustable, and reusable packaging solutions. The team, consisting of Protoéditions and WINT, uses digital welding to create patterned shapes that can be filled with air, allowing them to change shape and provide protection for objects. The design is inspired by natural patterns found in shells and skins, which create sturdy surfaces. The inflatable structures can be used to protect objects of varying shapes and sizes, and can even be used to build temporary walls or safety gear. The project aims to reduce material waste by creating reusable and adjustable packaging solutions. The use of digital tools allows for customization and flexibility, making it possible to create different sizes and shapes for various needs. The project has the potential to revolutionize packaging and support systems in areas such as architecture, transport, safety, and storage.

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Tomorrow Bureau, a tech-forward creative studio, and WINT Design Lab, a research-led entity, have collaborated on Project ARA, a project that explores the use of inflatable form as a versatile packaging material. The project draws inspiration from nature’s microstructures and biological defense mechanisms to create pneumatic membranes that can be used to protect various items. The membranes are made from elastic polymer and feature intricate tile-like patterns that provide durability and flexibility. The prototypes have the potential to be used on a broad scale, from insulating small objects to encapsulating architectural enclosures.

The project aims to create a more emotional and responsive design, tapping into the transcendent and humanist qualities derived from nature. The inflatable textiles are agile, reusable, and can accommodate awkwardly shaped objects. The collaboration between Tomorrow Bureau and WINT Design Lab has resulted in a innovative solution that combines design, technology, and sustainability. The project’s potential applications are vast, and it has the potential to revolutionize the way we think about packaging and design. The project is showcased on the PROTOÉDITIONS platform, which highlights innovative design prototypes.

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Biomimicry, the process of copying nature for product or system design, has been used to create innovative solutions to real-world problems. Examples include Velcro, inspired by plant seeds, and passive cooling systems in buildings, inspired by termite mounds. Other examples include using slime mold to design efficient city infrastructure, humpback whales to improve wind turbine efficiency, and spider webs to create bird-safe glass. Fireflies have even inspired more efficient LED lights, with asymmetrical microstructures that increase light extraction efficiency.

These examples demonstrate the potential of biomimicry to address environmental challenges and create sustainable solutions. The Biomimicry Institute promotes regenerative design that works in harmony with nature, and the field is continuously evolving with new discoveries and innovations. By looking to nature for inspiration, designers and engineers can create more efficient, sustainable, and environmentally friendly solutions that benefit both humans and the planet. From architecture to product design, biomimicry is a powerful tool for creating a more sustainable future. With its endless possibilities, biomimicry is an exciting field that continues to inspire and innovate.

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The Biomimicry Institute has announced the 10 startups selected for the 2025 Ray of Hope Accelerator. The six-month program provides $15,000 in non-dilutive funding, resources, and mentorship to nature-inspired ventures. The 2025 cohort includes startups from Colombia, the Netherlands, and the US, and addresses a range of challenges, including wildfire prevention, biomimicry-enhanced plant cell culture, and microplastic filtration.

The selected startups use biomimicry to develop innovative solutions, such as plant-based coatings, bio-based materials, and surgical adhesives. The program aims to support ventures that deliver lasting, meaningful impact and address the climate change and biodiversity loss polycrisis. The Ray of Hope Accelerator is now in its sixth year and is supported by partners including the Ray C. Anderson Foundation and L’Oréal.

The 2025 cohort will kick off with a reception at New York Climate Week, where the founders will pitch their startups. The Biomimicry Institute’s CEO, Amanda Sturgeon, and Co-Founder, Janine Benyus, expressed their excitement and hope for the cohort, highlighting the potential for nature-inspired solutions to create a more sustainable future.

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Carbon Neutral, a carbon offset accreditor, has launched a new Nature Credit scheme to fund the Perenjori Hills Sanctuary project in Western Australia. The project aims to protect 1054 hectares of natural bushland, home to many native plants and animals. The scheme allows individuals, governments, and organizations to contribute to enhancing Australia’s biodiversity.

Meanwhile, France has introduced a tax on “ultra-fast” fashion retailers, and the Australian Institute is pushing for similar measures in Australia. Australian shoppers are among the biggest contributors to fast fashion waste, with most items ending up in landfills within 12 months of purchase.

In a separate development, Janine Benyus, founder of Biomimicry 3.8, spoke about the importance of biomimicry in creating a sustainable future. She emphasized the need for humans to adopt a “culture of care and generosity” to promote biodiversity. Additionally, there are calls for more efficient electric vehicles in Australia, and several appointments have been made in the sustainability sector, including Emma Lucia as national sustainability leader at ACOR Consultants and Dr. Goslik Schepers as CEO of Eco-Markets Australia.

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The article discusses the potential of biomimicry, an innovation method that draws inspiration from nature to solve human design challenges, in promoting sustainable development in developing countries. Despite its promising economic impact, biomimicry has been largely overlooked in development economics literature and has been primarily adopted by advanced economies. The study highlights the potential of biomimicry for biodiverse nations to upgrade economically by leveraging their natural resources and biodiversity as a knowledge bank. However, the lack of policy and institutional support has led to coordination failures, hindering the adoption of biomimicry in developing countries. The article concludes that government interventions are necessary to stimulate the accumulation of capabilities around nature-inspired innovation, including long-term funding, access to biodiversity resources, and interdisciplinary education programs. Additionally, legal frameworks and institutions are needed to protect natural assets and biodiversity. The study provides key points for decision-makers, including the potential contribution of biomimicry to global GDP and employment creation, and the importance of promoting biomimicry-based innovation strategies for sustainable development.

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Robert Suarez, a former senior director at IDEO, was inspired by zebra patterns while on a stroll at the San Diego Zoo to develop digital credit card security. He applied biomimicry, a design approach that borrows from nature to solve problems, to create a pattern that abstracted credit card numbers, making them harder to steal. Biomimicry is the conscious emulation of life’s genius, and it’s often used in physical disciplines like architecture, but less so in digital design. Suarez and other experts believe that biomimicry can be applied to digital design, leveraging principles like those found in nature to solve UX challenges. The approach involves understanding life’s principles, a framework that consists of six core principles and 20 sub-principles, and using natural analogues to solve design problems. Biomimicry can be applied to digital design by emulating natural forms and processes, referencing AskNature.org, and internalizing the principles without feeling the need to explain the underlying biomimetic rationale. Experts suggest starting with simple questions like “What would nature do?” and incorporating natural history books and basic biology into one’s design process. Biomimicry can lead to innovative solutions, such as an energy management system inspired by honey bee swarm patterns and a machine learning model inspired by insect nerve impulses.

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Babson Trustee Ramón Mendiola, a sustainable business leader and former CEO of the Florida Ice and Farm Company, discussed systems thinking and sustainability on the “From Problems to Possibilities” podcast. Mendiola emphasized the importance of addressing the challenges facing humanity’s existence, stating “the planet itself will go on, but the people on it are the ones who are going to suffer.” The podcast’s third episode, titled “Trust the System,” explores how systems thinking and biomimicry can create sustainable businesses. The episode features Mendiola, Babson professor Vikki Rodgers, and blue economy specialist Ela Gokcigdem ’24. The discussion highlights the role of entrepreneurship and leadership in addressing environmental and social challenges. The episode is available on Apple, Spotify, and Amazon.

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Architects and designers can incorporate biophilia and biomimicry into their work by bringing nature into every project. By studying the site’s unique properties, including the terrain, climate, and local flora and fauna, designers can draw inspiration from nature’s forms, patterns, and logic. One approach is to collect site samples and document their properties to use as a guide. This organic design process allows architects to evolve their ideas in response to the conditions around them, similar to how organisms adapt to their environment.

Biophilic design can promote employee happiness, health, and productivity, as was seen in the design of Etsy’s headquarters in Brooklyn, which incorporated greenery, plant-themed artwork, and irregular shapes to create a natural and welcoming environment. Architects can draw inspiration from nature’s shapes, colors, and patterns to create innovative and effective designs that benefit both humans and the environment. By embracing biomimicry, architects can create buildings that are not only aesthetically pleasing but also environmentally and socially responsible. This process can lead to unique and effective design solutions that improve the quality of life for building occupants.

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Scientists are fascinated by the durability and unique properties of natural materials like corals, seashells, and peacock feathers. Despite the lack of heat or kilns, these materials have developed remarkable characteristics over time. Biomimicry, the field of studying and replicating nature’s designs, is gaining momentum as researchers seek to create sustainable products and designs inspired by these natural wonders. By understanding how nature achieves these remarkable properties, scientists hope to replicate them for human use. For example, coral reefs could inspire the development of stronger, more durable construction materials, while seashells might lead to more efficient and sustainable packaging solutions. Peacock feathers, with their vibrant colors, could inspire new coloration techniques for textiles and dyes. By exploring the natural world and its secrets, biomimicry has the potential to revolutionize the way we design and create everyday products.

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The concept of biomimicry is the practice of studying nature’s designs, processes, and strategies to solve human problems. This approach involves observing how organisms have adapted over time and applying those insights to innovate and improve technologies and systems. Biomimicry is not a new idea, as indigenous communities have long understood that nature holds profound knowledge and offering lessons for living in harmony and balance. Native American author Robin Wall Kimmerer writes that humans have the least experience with how to live and thus the most to learn – we must look to our teachers among other species for guidance.

The article provides five examples of biomimicry, including the development of Velcro, smart windows, advanced adhesives, and wind turbines. For instance, the design of Japan’s Shinkansen bullet train was inspired by the kingfisher’s beak, resulting in a quieter, faster, and more energy-efficient train. Similarly, the invention of Velcro was inspired by the hooks on burrs. The article concludes that biomimicry reveals that nature is not just a resource – it’s a mentor, and that by observing and learning from nature, we can find innovative solutions to today’s challenges.

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Biomimicry is the practice of using nature as inspiration for creating innovative solutions to human challenges. The article highlights eight examples of biomimicry in action, from bullet trains inspired by Kingfisher birds to ventilation systems inspired by termites.

The Kingfisher bird’s beak is used to design a more aerodynamic nose for bullet trains, reducing noise and increasing speed. Humpback whales’ tubercle fins are used to design more efficient wind turbines, improving lift and reducing drag. Sharkskin is used to create antimicrobial films that mimick the dermal denticles on a shark’s skin, reducing the growth of microorganisms.

Other examples include the Stenocara beetle’s ability to harvest water from the air, woodpeckers’ natural shock absorbers, cephalopods’ camouflage abilities, and termite mounds’ natural ventilation systems. These innovative solutions have been applied in various fields, including engineering, materials science, and architecture. By studying and mimicking nature’s designs, humans can create more efficient, sustainable, and innovative solutions to real-world challenges.

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Çamsarı’s lab has gained recognition for developing p-bits, a method to tackle complex optimization problems efficiently and with lower energy consumption compared to traditional computing approaches. The lab’s research centers on network sparsity, where connections are minimized between nodes, much like the “six degrees of separation” phenomenon. This allows for faster and more efficient hardware implementation. This approach also focuses on simulating quantum problems, such as molecular properties, which is crucial for drug development.Çamsarı’s work explores which problems can be solved using p-bits, like optimization tasks, and which require qubits (quantum bits). He emphasizes the complementary roles of p-bits and quantum-based methods, highlighting the value of p-bits for optimization problems, while acknowledging the importance of quantum computers for complex tasks like molecular prediction and chemical simulations. This division of labor is helping to advance the field, enabling researchers to tackle various challenges. By finding the optimal problem-solving approach, Çamsarı’s work is shedding light on how to effectively leverage the strengths of both p-bits and qubits.

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This content appears to be a collection of scientific papers and articles related to bioelectrocatalysis, specifically focusing on the development of hybrid bilayer membranes (HBMs) for the production of chemicals, fuels, and materials. The authors are exploring novel approaches to enhance the efficiency and selectivity of HBMs by controlling proton transfer, electron transfer, and molecular recognition. The papers discussed include:

1. Bioelectrocatalytic oxygen reduction using metal complexes embedded in HBMs
2. Controlling proton transfer in HBMs for oxygen reduction
3. Designing alkyl-nitrile for proton transfer enhancement
4. Electrocatalytic CO2 reduction using HBMs
5. Proton-coupled electron transfer in HBMs
6. Materials science and chemistry for energy storage and conversion
7. Supramolecular electrode assemblies for bioelectrochemistry
8. Bioprotonic devices and sensing applications
9. Membrane restructuring by enzymes and lipid domains
10. Atomic force microscopy for studying supported lipid films

The studies aim to improve the performance of HBMs by:

* Engineered proton transfer pathways
* Fine-tuning surface properties
* Incorporating specific enzymes or molecules
* Controlling lipid composition
* Designing novel catalysts and substrates
* Enhancing mass transport

The research highlights the potential of HBMs in various applications, including:

* Production of chemicals, fuels, and materials
* Bioelectrochemical energy conversion and storage
* Bioprotonic devices and sensing
* Biotechnological applications

Overall, the papers demonstrate the possibility of developing advanced HBMs with tailored properties for specific applications, highlighting the importance of understanding membrane structure, dynamics, and function in bioelectrocatalysis.

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Researchers are studying how nature creates durable materials like corals and seashells using only natural means, without heat or kilns. They are also seeking to understand how peacock feathers achieve their vibrant colors. This inquiry aims to develop sustainable products and designs for humans by replicating these processes.

The field of biomimicry, which involves studying and emulating nature’s strategies, is gaining attention. By doing so, scientists hope to create innovative and eco-friendly products.

Biomimicry’s goal is not to replicate nature exactly, but to adapt its principles to benefit human industries. Inspired by nature, researchers and designers are exploring new solutions for a variety of fields, including materials science, architecture, and textiles.

Companies and organizations are also embracing biomimicry, conducting research to develop sustainable products. This effort is expected to lead to the development of more efficient and eco-friendly materials. By studying nature’s wisdom, scientists and designers can unlock novel solutions in various areas.

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Insects have evolved diverse materials to thrive in various environments, and researchers are borrowing from these natural innovations to solve problems like antibiotic resistance and unsustainable packaging. Biomimicry, which focuses on structure rather than molecules, can lead to sustainable and functional materials. The cicada’s antimicrobial wings, for example, can inspire self-cleaning surfaces that remove bacteria without using harsh chemicals. Another example is Shrilk, a biodegradable bioplastic made from chitosan and silk proteins, which is strong yet lightweight and rapidly biodegradable.

Biomimicry offers a promising approach to material design, as it allows for the creation of materials with enhanced properties without altering the molecules. This approach is important for achieving both functional and sustainable materials. The Wyss Institute’s work on Shrilk demonstrates the effectiveness of this methodology, which can be used to create materials with new properties by altering their structure at the microscopic and nanoscales. The insect exoskeleton, in particular, has inspired researchers to develop new materials with unique properties, such as strength and lightness.

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Fetal bovine serum (FBS) is the gold standard for cell culture, but its use has several disadvantages, including safety concerns, batch-to-batch variations, and limited representation of the human condition. Human serum and human platelet lysate (hP) have been suggested as alternatives to enhance safety, quality, and reproducibility of in vitro assays. Human serum has been shown to modify cancer cell behavior, enhance cell invasion, and support the growth and osteogenic differentiation of primary cells. hP is an alternative to FBS for culturing mesenchymal stem cells and other cells.

The authors of an article presented evidence that human derivatives can provide promising alternatives to FBS for mimicking human tumor microenvironments. They analyzed the effects of human serum and hP on the functional capacity of human MSC-derived osteoblasts and monocytes-derived osteoclasts. The authors also evaluated cell growth and osteolysis of the metastatic and primary Ewing’s sarcoma cells in the presence of human supplements.

The results of the study showed that human serum and hP can provide a more accurate representation of the human condition and can enhance the predictability of experimental outcomes. However, the authors note that research is still mostly done using animal supplements, and the published data for the use of human derivatives in studies of cancer and in vitro 3D tumor modeling are limited.

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The fashion industry is facing pressure to increase sustainability, with microplastic pollution and microfibre waste being major concerns. Biomimicry, which involves replicating nature’s solutions, can help achieve true sustainability. One example is the use of recycled polyester (rPET) as a fabric ingredient, which reduces waste and pollution. Another approach is to explore biodegradable innovations and natural fibers like mushroom leather, which can replace synthetic materials.

Biomimicry can also be used to restore and regenerate damaged ecosystems. Forward-thinking brands like Patagonia are embracing biomimicry to reduce microplastics and create sustainable fashion solutions. Consumers are also driving demand for sustainable fashion, with younger generations leading the charge.

The benefits of biomimicry include highly functional solutions, a desire to contribute to the environment, and reduced testing time. Brands can adopt biomimicry by thinking outside the box, looking to nature for inspiration, and replicating natural systems’ performance benefits. The fashion industry has the potential to lead in sustainability, and biomimicry can be a key strategy for achieving this goal.

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The article discusses the importance of incorporating natural design principles into urban planning. It highlights three design strategies: biomimicry, permaculture, and Feng Shui, which draw inspiration from nature to create sustainable and resilient cities. Biomimicry emulates nature’s engineering, permaculture focuses on regenerative ecosystems, and Feng Shui balances energy flow and design.

The article provides examples of how these principles have been applied in practice, such as the Eastgate Centre in Harare, Zimbabwe, which uses biomimicry to regulate temperature and manage water flow, reducing energy costs and building a self-sustaining environment. Christchurch, New Zealand, has also incorporated permaculture principles into its urban design, creating a disaster-resilient city with regenerative systems. Feng Shui has been used in urban design in cities like Hong Kong and Singapore, where design elements are chosen to balance energy flow and promote harmony.

The article concludes that combining biomimicry, permaculture, and Feng Shui can create cities that are not only sustainable but also beautiful and connected to nature. It highlights the Gardens by the Bay in Singapore as an example of a city that has successfully incorporated all three principles into its design, creating a living testament to the potential of nature-inspired urban design.

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The field of biomimicry focuses on understanding and mimicking nature’s innovative designs and engineering principles to develop sustainable solutions for human design and innovation. Researchers are studying how nature creates durable materials, such as corals, and how geckos stick to surfaces, to improve human technologies like concrete and medical adhesives. The episode explores how coral inspired a new form of concrete, how gecko feet could lead to new medical adhesives, and how leaves are influencing new ways of harnessing solar energy. The episode also features an interview with science writer Janine Benyus, who coined the term biomimicry and has written extensively on the topic. Additionally, the episode discusses how a North Carolina company called Biomason is developing a new way of making cement that could store carbon, inspired by the way corals form, and how scientists are studying cephalopods, like squid, to harness their ability to quickly manipulate and edit their genetic material to create new medical treatments.

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Architect Vincent Callebaut has designed a futuristic structure called Lilypad, which is inspired by nature. This conceptual floating island is designed to accommodate up to 10,000 inhabitants and is intended to offer an alternative to rising sea levels. Lilypad is an eco-friendly structure that features a central freshwater lagoon for rainwater collection and purification. The island is divided into different zones, including a marina, mountain areas, and housing layers, all surrounded by suspended gardens and organic streets.

Callebaut has applied biomimicry principles to Lilypad’s design, drawing inspiration from the radial and concentric geometry of a water lily leaf and the shell of a seashell. This design reduces the use of materials and allows the structure to naturally calcify and reduce its ecological footprint. The architect believes that Lilypad transforms climate challenges into opportunities by working in symbiosis with the environment. The design is a prime example of biomimicry in architecture, where nature is used as a guide to solve human challenges.

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The content is about a replay of a 2008 show featuring Janine Benyus, a scientist, animist, and poet who founded the Biomimicry Institute. The show is being replayed to highlight the relevance of biomimicry, or imitating nature’s designs, to modern life. In the show, Benyus discusses “range voting,” inspired by bee democracy, where individuals are allocated a range of values rather than a single “yes” or “no” option. She also talks about innovation and limits, as well as how humans can learn from nature’s guiding design genius. The show is being re-broadcast due to the increasing importance of sustainability and cooperating with nature.

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Biomimicry Architecture is an approach to designing buildings and structures that mimics nature’s functions, forms, and elements. This concept is derived from the Greek words “bio” meaning life and “mimicry” meaning imitation. Biomimicry in architecture is inspired by nature’s adaptability, sustainability, and harmony with the environment. The concept is not limited to aesthetics, but also focuses on functionality, energy efficiency, and sustainability.

The article highlights various examples of Biomimicry Architecture, including the Esplanade Theatre in Singapore, which was inspired by the Durian fruit; the National Aquatics Center in Beijing, which was designed to resemble water bubbles; and the Gherkin in London, which was inspired by a Venus Flower Basket Sponge.

Other notable examples include the Beijing National Stadium, which was designed to resemble an old Chinese art motif; the Eastgate Centre in Zimbabwe, which was inspired by termite mounds; the Eden Project in England, which mimicked soap bubbles; and the Milwaukee Art Museum, which was designed to resemble a bird wing.

The Algae House in Hamburg is another notable example, which uses freshwater algae to generate biomass and biogas. These examples demonstrate how Biomimicry Architecture can lead to innovative, sustainable, and energy-efficient designs that harmonize with the natural environment. By drawing inspiration from nature, architects can create structures that not only reduce their environmental impact but also promote a better understanding of the natural world.

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The article discusses the emerging field of biomimicry, where nature’s innovative designs and processes inspire human solutions to environmental problems. This approach has led to the development of nature-inspired robotics, which aim to solve ecological issues sustainably and efficiently. One example is Plantolin, a robot inspired by the pangolin’s seed-planting method, designed to assist in forest restoration and combat climate change. The robot’s design is a blend of simplicity and innovation, using motorized claws to plant seeds and deposit nutrients. This eco-friendly solution has the potential to replenish and protect fragile ecosystems. The article also highlights other nature-inspired robots, such as the AVOCADO project, which uses a fungal mycelium to monitor rainforest ecosystems, and biohybrid robots that integrate living organisms with mechanical components to sense and respond to environmental changes. The article emphasizes the importance of supporting young innovators and educational initiatives, as well as the need for interdisciplinary collaboration to overcome ethical and environmental concerns, to ensure that these technologies are developed and deployed responsibly. The future of nature-inspired robotics holds great promise for solving real-world problems in a sustainable and efficient manner.

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Biomimicry is a design methodology that seeks to solve problems by emulating and abstracting natural systems and structures. This approach can be applied to composition, specifically in electroacoustic music, to create innovative and sustainable solutions. The author explores the potential of biomimicry in addressing compositional challenges, using scientific concepts and principles from fields like nanotechnology to create music. The study examines the intersection of biomimicry and electroacoustic composition, highlighting the potential of biomimicry to translate scientific ideas into musical materials and structural elements.

The article discusses biomimicry as a methodology that involves a six-stage process, including contextualization, biologization, discovery, emulation, and evaluation. The author presents examples of biomimetic compositions, including the piece “cdot,” which uses biomimetic techniques to translate scientific concepts into musical materials and structural elements.

The article concludes that biomimicry encourages a shift away from anthropocentrism and promotes a mutual partnership with nature, encouraging sonic practices that interpret systems beyond our everyday human experience. The study suggests that a formalized biomimetic framework can serve as a starting point for initiating compositions, addressing creative challenges, or fostering interdisciplinary partnerships, but does not require rigid compliance.

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The construction industry (CI) is a significant sector that plays a crucial role in global economic growth and employment. However, the CI has negative environmental impacts, including water emissions, waste generation, resource consumption, and air pollution. The sector is also responsible for construction-related accidents, energy consumption, and noise pollution. The CI is one of the least digitalized industries, but the current 4IR era has seen a gradual integration of emerging technologies, such as robotics, AI, and blockchain, to minimize its environmental footprint.

The concept of sustainability is increasingly important in the CI, and there is a growing pressure on construction entities to prioritize sustainability in their decision-making processes. However, several challenges hinder the transition to sustainability, including operational, managerial, and strategic barriers. The sustainability of the CI is critical to minimizing its negative impacts on the environment and ensuring a better future for human and natural environments.

The article highlights the importance of biomimicry, a process that mimics nature’s design principles to develop new technologies, which can be applied to the CI to reduce its environmental impact. The adoption of emerging technologies, such as artificial intelligence, building information modeling (BIM), and the internet of things (IoT), can also facilitate the transition to sustainability in the CI.

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The article discusses the importance of incorporating biomimicry in the built environment to address the challenges of urbanization, industrialization, and unsustainable economic growth. It highlights nature’s 3.8 billion years’ head start in solving complex challenges and how humans have been mimicking natural systems for centuries, from ancient architecture to modern technology. The article showcases various examples of biomimetic design at the city, building, and material levels, including:

* The Mobius project, which models its closed-loop circular economy approach on the oak tree’s ability to reuse resources and conserve energy and water.
* The Sahara Forest Project, which uses biomimicry to create a seawater-cooled greenhouse that can grow crops in arid environments.
* The Eden project, which designed its giant greenhouse to resemble soap bubbles and uses biomimicry to create a lightweight structure.
* The use of abalone shells to create strong, lightweight structures that require fewer materials and the development of bendable concrete inspired by the abalone’s calcium carbonate discs.
* The lotus leaf’s water-repellent coating, which has inspired a protective coating for buildings, and the use of limestone-producing bacteria to repair and regenerate concrete structures.

The article concludes that biomimicry can be a valuable source of inspiration for creating a more sustainable built environment, and that nature’s 3.8 billion years of experience can provide valuable lessons for humanity to learn from.

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The article discusses the buzz about Fruzz, which appears to be a new book series by Sue Swain, a biomimicry practitioner and educator. According to the article, the series is an intergenerational collection of books that showcases Sue’s passion for the planet Earth. However, the full content of the article is reserved for subscribers of The Herald, a South African news publication. To access the full article, readers must either subscribe or log in with their existing credentials if they are already registered on other publications. The article also provides contact information for readers who may have questions or issues with subscription or sign-up.

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The combination of biomimicry (mimicking nature) and artificial intelligence (AI) has led to new possibilities. While AI has become a buzzword, biomimicry was coined in 1956 by Otto Schmitt, and later popularized in 1997 by Janine M. Benyus. Biomimicry involves taking inspiration from nature to solve design and engineering challenges. For example, Japanese engineer Eiji Nakatsu designed a new bullet train with a beak-like front inspired by the kingfisher’s beak, reducing noise and energy consumption. The synergy between biomimicry and AI can lead to optimized algorithms, improved data processing, and autonomous damage control mechanisms. Biomimicry can also inform the design of sensors and drones that mimic the behavior of insects to monitor plants more effectively. While there are challenges in translating complex biological mechanisms into computational models, the potential benefits are substantial. By harnessing the adaptability, efficiency, and elegance of natural designs with AI, industries can be revolutionized, global challenges can be addressed, and a more sustainable and interconnected future can be envisioned.

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Biomimicry 3.8 is a leading biological intelligence firm that provides innovation services, strategic consulting, professional training, and thought leadership to support sustainable and regenerative products, processes, and organizations. The company is dedicated to raising the bar on sustainability, moving beyond reduction goals to science-based targets and actions that benefit ecosystems, employees, and communities. Project Positive is a group of organizations led by Biomimicry 3.8, which has completed over 20 large-scale projects to date. These projects demonstrate how factories, headquarters, campuses, cities, and urban developments can be redesigned to deliver ecosystem services, support environmental, social, and governance (ESG) goals, and achieve a social license to operate, while elevating employee engagement and stakeholder trust.

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The concept of resilience in architecture is gaining importance, particularly in the face of natural disasters. While sustainability focuses on preserving natural resources, resilience emphasizes the ability to adapt and persist in times of adversity. Biomimicry, the study of nature’s designs and strategies, holds promise in enhancing disaster resilience in construction. By mimicking nature’s forms and systems, buildings can become more adaptable and resilient. The four key concepts of resilience in architecture are rebound, robustness, extension, and adaptability.

Biomimicry can inform structural form and behavior in building design, as seen in the example of the China World Trade Center, which was inspired by bamboo’s load-bearing properties. A modular design approach, similar to nature’s building blocks, can boost flexibility and agility. Embracing testing and prototyping can also help identify system limitations and improve design. As the world faces unprecedented challenges, biomimicry offers a promising strategy for enhancing infrastructure resilience. By shifting focus to ecosystem-level mimicry, architects can create harmonious and resilient buildings that thrive in changing environments.

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Architecture enthusiasts are adopting nature as a model for human-made structures, incorporating concepts like biomimicry, ecomimicry, and regenerative design to reduce building emissions. These ideas include:

* Regenerative design: designing buildings to create resources needed to run, such as solar power.
* Biomimicry: mimicking natural processes to reduce resource use, like the Earl’s Court Exhibition Centre.
* Ecomimicry: combining biomimicry with sustainable practices, such as using recycled and ethically sourced materials.

Experts in the field, like the Living Future organization, are developing guidelines for creating self-sustaining structures that don’t harm the environment. The Regenerative Architecture Index is another benchmark for delivering holistic recommendations.

The UN predicts the world will warm by 3.2°C by 2100 due to outdated building practices and rapid urbanization. Incorporating regenerative principles is crucial for sustainable development. This includes controlling erosion, improving biodiversity, and correlating water use.

Ecomimicry will play a pivotal role in sustainable design, focusing on restoring ecological systems, building climate resilience, boosting energy efficiency, and reducing resource consumption.

Challenges in incorporating nature’s influences include education, public resistance, and scalability. However, with continued collaboration and education, experts can overcome these hurdles and create a more sustainable future. Embracing nature’s processes is essential for global designers and architects to create buildings that are sustainable, healthy, and harmonious with the environment.

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The concept of biomimicry, or the modeling of materials, structures, and systems on biological entities and processes, has become increasingly popular in recent years. One example of biomimicry is the development of Velcro, which was inspired by the way burs stuck to George de Mestral’s clothing while on a hike. The natural world has been a source of inspiration for many innovations, from shark skin-inspired swimsuits to whale fin-shaped wind turbine blades. Biomimicry offers many benefits, including sustainability, as natural solutions are often environmentally friendly and more efficient. Additionally, it can provide novel solutions to complex problems, such as mining and cleaning, by looking to nature’s examples. The process of biomimicry can also change our perspective and build infrastructure that yields net positives, rather than just neutral results. As humans have only been innovating for a short period of time, natural systems have had millions of years to evolve and refine solutions. As we delve into biomimicry, we can take advantage of these tested and efficient strategies to find new and innovative solutions.

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Biomimicry is an approach to innovation that seeks to solve human challenges by mimicking nature’s patterns and strategies. Engineers are inspired by nature’s solutions to develop sustainable solutions. This article highlights nine innovations inspired by nature. For example, the Kingfisher’s beak shape was used to design a noise-reducing train, reducing noise pollution and energy consumption. The gecko’s toe pads inspired the creation of climbing materials, allowing humans to scale glass walls. Whales’ tunnel-like fins have inspired the design of serrated-edge wind turbines, which are more efficient and quieter than traditional blades. Other examples include spider silk, used to create bird-safe glass, and Velcro, inspired by the hooks on burrs. The lotus flower’s water-repellent properties have been replicated to create superhydrophobic sealants, while the Namibian Beetle’s fog-collecting abilities have inspired a device for collecting water. The biomimicry approach is not limited to these examples, and nature continues to inspire innovations that solve real-world problems.

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Shin-Etsu Chemical has acquired the biomimicry dry adhesive technology of Setex Technologies, a US-based startup. This technology uses a gecko’s hand-like structure to provide strong friction and adhesion on surfaces. The acquisition aims to enhance semiconductor and manufacturing processes, such as residue-free handling, adding holding functions in hot processes, and promoting environmentally friendly practices. The technology will be integrated into various Shin-Etsu Chemical products, including semiconductor process materials and other functional materials. The company plans to apply ShineGrip, the new technology, to various industries, including electronics, to provide innovative solutions for customers. The goal is to combine Shin-Etsu Chemical’s materials with the unique biomimicry technology to add functionality to surfaces, such as pattern processing. This acquisition is expected to help Shin-Etsu Chemical meet the increasingly sophisticated demands of its customers and provide effective solutions to their problems.

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The mining industry is under increasing pressure to adopt sustainable solutions for mine closure, driven by strict regulations, community concerns, and the need for long-term environmental responsibility. Traditional “grey” engineering structures struggle to adapt to changing environmental conditions, and mining activities can contaminate soil and water. Biomimicry, which mimics natural processes to mitigate toxic substances, offers a solution. Experts at SRK Consulting suggest that instead of using single-species grass for erosion control, mine closures should mimic local topography and vegetation to create erosion-resistant structures. Carbon sequestration through modified tailings that react with atmospheric carbon dioxide can also address climate change. Effective mine closure requires a holistic approach, including closed-loop design, community engagement, and global best practices. The Australian government’s “Nature Positive Plan” aims to protect 30% of land and sea by 2030, and mining companies must integrate biodiversity considerations into decision-making. While implementing biomimicry and ESG practices faces challenges such as cost, lack of experienced engineers, and regulatory pressures, collaboration between designers and ESG practitioners is crucial to achieve sustainable mine closures that benefit both the environment and local communities.

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Darrin Potter, Director of Market Development for ag tech company Terra Verra, discusses the benefits and growth potential of biomimicry technology in agriculture. Biomimicry involves using natural processes to improve crop health and defense against abiotic stressors, rather than relying on synthetic chemicals. Terra Verra’s products use amino acid-based formulations to create oxidants that replace chemical pesticides and fertilizers, ensuring a safe and sustainable approach. Potter sees adoption of biomimicry technology in Europe, Australia, and small organic farms, driven by consumer demand for sustainable and natural products. To educate farmers and retailers, Terra Verra partners with universities and conferences focused on sustainable agriculture and soil science. Potter expects competition with traditional agriculture, but believes biomimicry will become a solution for farmers to address environmental concerns and growing demand for sustainable practices. Over the next decade, Potter foresees increased focus on environmental issues, such as drought, crop health, and population growth, driving demand for biomimicry and biosimulance solutions.

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Researchers at the University of Manchester have made a groundbreaking discovery in the study of pterosaur fossils, which could lead to the development of lighter, stronger materials for future aircraft. By using advanced X-ray imaging, they found a network of microscopic canals in the bones of pterosaurs that helped to protect against small cracks and add strength. These canals were previously unknown and were likely used for nutrient transport and structural maintenance.

The researchers believe that this design could be mimicked in metal 3D printing, producing airplane parts with internal channels that mirror the natural bone architecture. This could lead to the creation of aircraft that are not only lighter and stronger but also more sustainable and environmentally friendly.

The study’s authors hope that by studying the unique properties of pterosaur bones, they can unlock new materials and technologies that can help build a more sustainable future. They plan to continue scanning more pterosaur fossils to uncover additional secrets and potentially create new biomimetic solutions for 21st-century engineering challenges.

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The tourism industry is starting to adopt biomimicry, an approach that involves observing nature to find sustainable solutions, to develop more sustainable tourism experiences. This involves drawing inspiration from living organisms to improve designs and reduce environmental impact. The aviation industry has been a leader in biomimicry, with examples such as winglets inspired by birds and eagles, and an Aeroshark bionic adhesive film inspired by shark skin. The train industry has also been inspired by nature, with the Shinkansen bullet train in Japan designed to reduce compression and improve aerodynamics, inspired by the beak of a fisherman. The maritime industry has also turned to biomimicry, with propeller-less ships inspired by dolphins and fish. In the tourism industry, biomimicry can help create innovative and engaging experiences, such as eco-tourism and activities that reduce environmental impact. For example, the TiHUB in Brittany provides support for innovative tourism projects that meet certain conditions. Overall, biomimicry offers a promising approach to sustainable tourism that considers all aspects of our surroundings and strives towards a desirable future without generating misleading ideas.

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Airbus has unveiled a revolutionary new aircraft design concept, named “Bird of Prey,” which is inspired by the biomechanics of birds of prey. The design features a blended wing-to-fuselage joint and individually controlled “feathers” that can be used to control the aircraft’s flight. The concept is intended to be more sustainable, quieter, and more efficient than current aircraft. The design was inspired by the A350 XWB, which was the first aircraft to use carbon fiber in its structure. Airbus is using the design as a way to inspire young engineers and encourage them to pursue a career in the aerospace industry. The company is also highlighting the importance of sustainability in aviation, and is working to reduce its carbon footprint through the use of hybrid-electric propulsion and active control systems.

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The Biomimicry Institute, a non-profit organization founded by Janine Benyus in 2005, is now accepting applications for its 2025 Ray of Hope Accelerator program. The program supports startups that use nature-inspired solutions to address environmental challenges. Ten selected startups will receive training, networking opportunities, and $15,000 in non-dilutive funding to scale their ventures. The program is seeking startups that can drive regenerative innovation, restore ecosystems, and create a sustainable future. The selected companies will participate in a six-month accelerator program, which includes in-kind services, industry mentorship, science-based storytelling, and connections with corporate leaders and mission-aligned investors. The program is looking for solutions that regenerate nature, mitigate climate change, and eliminate the “take, make, waste” paradigm. The deadline for applications is April 25, 2025.

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Italpinas Euroasian Design and Eco-Development Corporation (ITPI) is a pioneering property developer that advocates for sustainable architecture and development in the Philippines. The company’s approach is inspired by the concept of biomimicry, which involves using nature as a source of inspiration for building design. According to ITPI’s chairman and CEO, Romolo V. Nati, biomimicry is a way to restore the balance between human development and the natural world, which was disrupted by humanity’s misconception that resources are infinite and that nature can be controlled. By adopting biomimicry, ITPI creates buildings that work with nature, rather than against it. For example, the company’s Primavera Residences project was inspired by an anthill, featuring a central column that allows natural light and ventilation, reducing the need for artificial lighting and air conditioning. The Coral City project was inspired by coral, with interconnected ring-shaped buildings that can withstand natural disasters. ITPI’s approach has yielded significant benefits, including huge savings on construction costs and 20% savings on electricity bills for property buyers.

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The Biomimicry Institute, a non-profit organization, has announced the opening of applications for its 2024 Ray of Hope Accelerator program. This program aims to support nature-inspired startups with training, networking opportunities, and $15,000 in non-dilutive funding. The program is open to pre-seed to series A stage companies worldwide and will commence with an in-person nature retreat. The goal is to identify the next ten leading nature-inspired startups to join the six-month cohort program, which provides over $50,000 worth of in-kind services. The program has a track record of success, with all previous participants thriving and raising over $100 million in funding to address climate issues such as sea-level rise and plastic pollution. The Biomimicry Institute has a partnership with the Ray C. Anderson Foundation to support nature-inspired solutions. Applications are due on May 3, 2024, and can be accessed on the Biomimicry Institute’s website. The program is open to any startup working on nature-inspired solutions with a positive environmental or social impact.

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The articles discussed in this document are related to the creation of artificial cells, also known as synthetic cells, which are designed to mimic the functions of natural cells and have potential applications in various fields, including drug delivery, diagnostics, and biotechnology. The authors of the articles highlight the importance of understanding the characteristics and properties of natural cells in order to design and synthesis artificial cells that can mimic their functions.

The articles discuss various methods for preparing and characterizing synthetic cells, including the use of liposomes, giant unilamellar vesicles, and microfluidics. The authors also explore the challenges and potential applications of artificial cells, including their use in drug delivery, diagnostics, and biotechnology.

Some of the key takeaways from the articles include:

* The importance of understanding the characteristics and properties of natural cells in order to design and synthesis artificial cells that can mimic their functions.
* The use of liposomes, giant unilamellar vesicles, and microfluidics in preparing and characterizing synthetic cells.
* The potential applications of artificial cells in drug delivery, diagnostics, and biotechnology.
* The challenges and limitations of synthetic cell technology, including the need for more efficient and cost-effective methods for preparing and characterizing these cells.

Overall, the articles provide an overview of the current state of synthetic cell technology and its potential applications, as well as the challenges and limitations that need to be addressed in order to move forward with this technology.

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The field of biomimicry, or imitating life, seeks to replicate the ingenious designs of nature to solve some of the world’s most pressing sustainability challenges. By studying the natural world, scientists and engineers can develop innovative solutions that mimic the patterns, structures, and processes found in nature. For example, the Tokyo subway system was designed to mimic the growth patterns of slime molds, while the Shinkansen bullet train was inspired by the aerodynamics of a kingfisher’s beak. Other examples include swimsuits mimicking shark scales for enhanced speed and agility, and buildings that cool themselves by mimicking the air circulation of termite mounds. Biomimicry is not just about imitation, but about blending human ingenuity with nature’s timeless wisdom to create sustainable solutions that harmonize with the planet. By embracing biomimicry, we can unlock the secrets of nature and create a greener, more sustainable future.

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The beauty industry is on the cusp of a new era of innovation, driven by digitalization, AI, biotech, and data feedback. Experts predict that AI will revolutionize the industry, bringing precision and speed to product development, marketing, and supply chains. AI-powered smart devices will analyze individual skin cells, pores, and vessels, providing personalized beauty solutions. This technology will also enable precision in retail, streamlining processes, and improving product purchasing decisions. Biotech will play a significant role in creating innovative skin models and ingredients.

According to experts, AI will also lead to the rise of feedback loops, where consumers seek data, analysis, and commentary to inform their beauty choices. This may be driven by a lack of trust in one’s own abilities, with consumers increasingly seeking guidance from apps, online research, and social media. Beauty brands that can provide devices that provide skincare insights and suggestions will thrive. As a result, smart mirrors, wearables, and face masks will become increasingly popular. The beauty industry is on the brink of a major transformation, with AI, biotech, and data feedback shaping the future of the industry in 2025.

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