Ted Pavlic, an associate professor at Arizona State University, believes that social insects like ants and bees can teach us valuable lessons about decision-making and problem-solving. He and his colleagues are studying the behavior of social insects to develop novel algorithms for autonomous systems, including drones and robots. The team is designing control strategies for large-scale autonomous systems that can exhibit collective intelligence and self-organization. By mimicking the behavior of social insects, they aim to improve the capabilities of autonomous systems in unpredictable environments. For example, they are developing a swarm of drones that can search for victims and deliver supplies in disaster scenarios. They are also testing biomimicry-inspired algorithms to improve the performance of autonomous systems in various applications, including search and rescue operations. Furthermore, they are exploring the potential of bio-inspired AI to expand search and rescue operations, such as using robots to explore other planets and monitor power grid systems. By understanding how social insects make decisions in complex environments, the researchers aim to create more intelligent autonomous systems that can adapt to changing situations.
Shin-Etsu Chemical, a Japanese chemicals giant, has acquired Setex’s cutting-edge biomimicry adhesive technology.
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.
Here is a rewritten version of the text: Discovering inspired designs that cultivate a more sustainable future, rooted in the patterns and principles of the natural world. This rewritten version maintains the essence of the original message, but with a few tweaks to make it more concise and engaging. I: * Changed rewritten to discovering to make the language more active and exploratory * Changed solutions to designs to make the language more vivid and descriptive * Emphasized the idea of a more sustainable future by rephrasing it as cultivate a more sustainable future * Used more lyrical language to make the phrase more evocative and memorable, such as rooted in the patterns and principles of the natural world instead of inspired by nature
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.
Exploring the Future of Sustainable Farming: A Conversation with Terra Verra’s Darrin Potter on Biomimicry and Its Role in Revolutionizing Agriculture
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.
Vintage fossil discoveries fuel innovative aerodynamics in futuristic aircraft design
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.
Unlocking the Potential of Biomimicry: Exploring New Frontiers in Tourism through Innovation I made the following changes: * Changed Biomimicry to Biomimicry (assumed this was a typo) * Added a more dynamic and attention-grabbing tone to the title * Emphasized the potential for innovation and new frontiers in tourism * Changed Its Possibilities to the Potential to make the language more concise and effective Let me know if you would like me to revise anything further!
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.
Airbus is integrating biomimicry principles in its new eco-friendly aircraft design
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.
Join the Biomimicry Institute’s 2025 Ray of Hope Accelerator: Apply Now and Take Your Startup to New Heights!
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.
Harmonizing Human Habitation: Biomimicry-Driven Innovations in Building Design
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.
The Biomimicry Institute is now accepting applications for its fifth cohort of the innovative Ray of Hope Accelerator program, empowering entrepreneurs to revolutionize the future.
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.
Developing synthetic red blood cells for in vivo therapies through biomimicry-inspired design This rewritten version maintains the core idea of creating artificial cells for biomedical applications, but uses more concise and descriptive language. It also emphasizes the innovative approach of biomimicry, which is an important aspect of the original phrase.
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.
Seeking Innovation in the Natural World to Shape a Sustainable Future
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.
Biomimicry: How Nature Inspires Sustainable Innovations
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Beyond Beauty: Unveiling the Future of Science 2025: Breakthroughs in Artificial Intelligence, Data-Driven Discoveries, and Biomimetic Innovation
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.
Unveiling the Secrets of Nature: Silicon-based Biomimicry in Silkworm Moths This reworded sentence retains the main idea of biomimicry and highlights the inspiration from nature, while using more vivid and concise language to convey the concept.
Researchers have developed a new technology that mimics the ability of silkworm moths to navigate using their sense of smell, which could revolutionize various industries. The technology combines robotic elements with the antennae of silkworm moths, allowing drones to detect odors up to 16 feet away. This could have numerous applications, including detecting gas leaks, early fire detection, and improving public security by detecting hazardous substances. The development is a prime example of biomimicry, where human designers are inspired by God’s design in nature. This technology was created by copying the physical design of the moths’ antennae, rather than trying to re-create the design. This reminds us that even the most advanced human technology falls short of what God has designed, as seen in something as humble as a moth. The development of this technology highlights the importance of biomimicry and the need for Christians to recognize God’s handiwork in nature.
Introducing the Biomimicry Institute’s Decade of Innovation: A 10-Year Roadmap
The Biomimicry Institute, a non-profit organization, has announced a 10-year strategy to create a Nature-Positive, Inclusive, and Regenerative World. The strategy aims to address global challenges such as climate change, biodiversity loss, and the disconnection between humans and nature. The Institute’s approach is to harness natural strategies to develop innovative, sustainable solutions. To achieve this, they will use their AskNature Hive platform and programs to enable professionals to integrate nature’s genius into their work. The strategy is centered around three key ideas: climate change and biodiversity loss, disconnection between humans and nature, and the “take-make-waste” culture. The Biomimicry Institute also aims to rekindle humanity’s appreciation of and connection to nature by integrating Indigenous wisdom with Western science. The organization expects to achieve several key outcomes, including a transition to a Nature-Positive future and the use of nature-inspired solutions to address climate change and biodiversity loss. The Institute has also launched a new collaborative initiative to convert discarded clothes and textiles into biocompatible raw materials.
In a groundbreaking development, engineers have discovered a way to harness the aerodynamic secrets of the condor’s wing to create more efficient wind turbines, mimicking nature’s design to revolutionize renewable energy.
Here’s a summary of the content in 200 words:
Researchers at the University of Alberta have developed a novel winglet design for wind turbines, inspired by the Andean condor’s wings. The condor’s wings are particularly efficient due to their unique shape, which reduces drag and allows them to soar for long distances without flapping. The University of Alberta’s mechanical engineering department teamed up with Biome Renewables, a company that specializes in biomimicry, to create a 17.6-foot winglet designed to be easily added to existing wind turbine blades. The team used computer simulations to study the winglet’s impact on a standard wind turbine model and found a significant increase in both torque and overall power production. The winglet reduces induced drag by creating a more efficient airflow around the blade tip. This breakthrough could boost wind turbine efficiency by an average of 10%. The research highlights the potential of biomimicry in solving complex engineering problems and could contribute to a more sustainable future by increasing the use of clean energy sources.
By drawing inspiration from nature, architects can foster more sustainable building practices by opting for eco-friendly materials.
The concept of biomimicry, which involves imitating nature’s designs to solve problems, has great potential in architecture and building design. Researchers and architects are already using biomimicry to create more sustainable, efficient, and innovative building solutions. For example, using surfaces that mimic shark skin, which repels bacteria, in hospitals to reduce the spread of disease. Architects are also incorporating biomimicry in their designs, such as using directives laser interference patterning to create textures that mimic nature’s surfaces. These materials can be used on a variety of materials, including metals, polymers, ceramics, coatings, and glass.
In residential settings, biomimicry can be used to design buildings that mimic how nature functions, such as using natural ventilation systems to reduce energy consumption. For example, a home in Jaipur, India, was designed with a central courtyard to provide natural light and ventilation, while bedrooms and kitchens were designed to take advantage of natural sunlight and ventilation.
Campbell Frey, an architect and expert in biomimicry, believes that biomimicry can be applied in residential settings by analyzing how nature solves problems and adapting those solutions to human designs. He notes that while biomimicry has been used extensively in larger projects, such as farms and commercial buildings, it is still in its early stages in residential design. However, there is great potential for biomimicry to improve building design, making buildings more sustainable, efficient, and functional.
The Biomimicry Center – Start Here
The TBC (Technology and Business Center) has a two-pronged approach to its Learning and Research spaces. The Learning space, inspired by the concept of an “arroyo” (a natural watercourse that nourishes and renews), offers graduate-level online programs and an on-campus undergraduate certificate. This space is designed to provide support and growth for those who visit. The Research space, which is based on the “seeds” model, promotes the development of new ideas and possibilities that can be shared with neighboring ecosystems. The concept of the arroyo and the seeds is deeply rooted in the center’s strategy, highlighting the importance of learning from nature. By combining these two approaches, TBC aims to foster growth, innovation, and progress.
Building a more sustainable economy through the principles of biomimicry, regeneration, and community-driven localization.
This session will explore the emerging concept of a “frugal” economy, which centers value propositions on principles of biomimicry, regeneration, and localization. The session is designed for strategists, designers, and innovators who are new to these concepts or seeking new inspiration. The session will cover three key learning outcomes: understanding how to translate frugal economy principles into business value propositions, assessing which characteristics of biomimicry, regeneration, and localization resonate with various stakeholders, and getting tips on educating consumers, suppliers, and stakeholders about the benefits of pivoting towards these principles. The session aims to provide a comprehensive understanding of how to integrate these principles into business models, products, and services, ultimately driving innovation and success.
Unlock the power of nature with our free online Biomimicry Design Course, courtesy of MCAD
The Minneapolis College of Art and Design (MCAD) has partnered with Canvas.net to offer a free online course, “Biomimicry: A Sustainable Design Methodology”. This course functions as an introduction to biomimicry, which is a sustainability framework that studies nature’s best design ideas to solve human design challenges. The course will familiarize students with biological solutions and teach them how to apply nature’s design principles to solve problems. Instructors believe that biomimicry can help individuals develop a new way of thinking to tackle human-centered design challenges. Students will learn how to use a database called AskNature.org, a popular research tool for sustainable designers. The class will run from March 23 to April 20, 2015, as part of MCAD’s Master of Arts in Sustainable Design program. The Biomimicry Institute and the Ray C. Anderson Foundation have also announced a Biomimicry Global Design Challenge, focusing on addressing global food system issues.
Developing underwater adhesives through biomimicry, mirroring nature’s solutions to create innovative materials
A team of researchers at Purdue University has developed a new biomimetic polymer adhesive that can stick underwater, overcoming the challenges of conventional adhesives that require a dry and clean surface. The adhesive is inspired by the way mussels can stick to rocks underwater, using a protein containing a unique amino acid called 3,4-dihydroxyphenylalanine, which is responsible for underwater adhesion. The researchers have created a polymer that contains this catechol group, making it possible to create an underwater adhesive that is three times more effective than conventional glues. The adhesive is made using a polymerization in suspension protocol, which uses water instead of organic solvents and reduces the risk of reaction runaways, making it a more sustainable and cost-effective option. This development has the potential to revolutionize industries such as marine construction, boat repair, and even medical devices. The researchers believe that their work demonstrates the power of biomimicry, which involves using nature’s solutions to solve human problems, and that it can be used to solve a wide range of problems in various fields.
Japanese chemicals leader Shin-Etsu acquires Setex’s innovative biomimicry-based adhesive technology
Shin-Etsu Chemical has acquired biomimicry dry adhesive technology from Setex Technologies, which uses gecko-like structures to create strong friction and adhesion on surfaces. This technology, named ShineGrip, allows for residue-free handling, adds holding function in hot processes, and promotes environmentally friendly practices. The innovation can be used in various industries, including semiconductors and manufacturing, to replace chemical adhesives and reduce waste. Shin-Etsu Chemical aims to develop new products and solutions that utilize this technology, including repetitive adhesion without chemical adhesives, to enhance process efficiency and reduce environmental impact. The company plans to combine its materials with this technology to create innovative solutions for customers, with the goal of promoting “ShineGrip” in various applications.
New Film Inspires Designers to Draw from Nature’s Blueprint
The article discusses the concept of biomimicry, which is the study and application of nature’s design principles to solve human problems. The film “Biocentric” showcases how biomimicry can be applied to architecture, engineering, and construction to create sustainable and environmentally friendly solutions. The film highlights the wisdom of natural systems, such as the self-watering and self-shading plants, and encourages viewers to adopt a child-like curiosity to learn from nature. The article also touches on the concept of “sufficiency” vs. “efficiency” and the importance of placing life at the center of design decision-making. The film suggests that by adopting a circular economy and economy of care for the planet, we can design in a way that is reciprocal and beneficial for both humans and the environment. The article concludes that biomimicry has the potential to revolutionize the way we design and build, and that it is time to “return the favor” that the natural world has given us.
The clever mimicry in Polybion’s Celium is a shining example of biomimicry at its finest.
Polybion’s Celium, a sustainable and innovative material made from bacterial cellulose, is now globally available. This breakthrough marks a significant milestone in the fashion industry, as it brings biomaterials one step closer to mainstream commercialization. Celium is created by feeding bacteria with agro-industrial fruit waste, such as mango pulp, which is converted into a cellulose structure as a metabolic by-product. This structure is then treated to mimic the texture of leather, resulting in a unique and one-of-a-kind material. The material has undergone significant improvements in the past year, including enhanced performance, low carbon emissions, and life cycle assessment validation, thanks to a collaboration with Ganni. Polybion’s founders believe that Celium is not a leather alternative, but a new material that offers a unique aesthetic that can be scaled up to have a significant impact on the fashion industry. The company plans to continue improving and innovating the material, with the potential for genetic engineering to further enhance its performance and aesthetics. With Celium, Polybion is bringing biology and creativity together to develop sustainable solutions for the fashion industry.
Harvesting Nature’s Secrets: Biopolymers and Biocomposites for Intelligent Wound Care Let me know if you’d like me to suggest further rewrites!
Skin is the body’s first line of defense against external injuries and diseases. The skin has three layers: the epidermis, dermis, and hypodermis. Wounds can be acute or chronic, with chronic wounds requiring a longer healing period. The healing process involves four stages: homeostasis, inflammation, proliferation, and remodeling. Each stage is crucial for the wound to heal properly.
Recently, natural biopolymers have gained attention for their potential use in wound dressing. These biopolymers are biocompatible, biodegradable, and can mimic the native extracellular matrix. Examples of natural biopolymers include keratin, collagen, hyaluronic acid, and silk. These biopolymers can be processed into various forms, such as nanofibers, hydrogels, and films, to create wound dressings with desired properties.
Researchers have been exploring the use of natural biopolymers in wound dressing, including keratin-based dressings, collagen-hyaluronic acid-based dressings, and silk-based dressings. These dressings have shown promise in improving wound healing and reducing scar tissue formation. However, more studies are needed to fully explore the potential of natural biopolymers in wound dressing.
Revolutionizing innovation: Top 3D printing projects inspired by nature’s biomimicry
Biomimicry is the practice of using nature’s designs and processes to create innovative technologies and solutions. With the rise of 3D printing, biomimicry has become even more feasible. Here’s a summary of 12 biomimetic projects, showcasing how 3D printing is used to develop innovative products and solutions inspired by nature. These projects include:
1. Earth Moc shoes: Designed to be reminiscent of intertwining roots and vines, with a 3D printed, lightweight structure.
2. AguaHoja Pavilion: An architectural marvel that incorporates additively manufactured components, inspired by water and its effects.
3. Design of dressed by Zac Posen: 3D printed clothes inspired by the shape of roses and the movement of water.
4. The Tower of Life: A sustainable, biodegradable 3D printed structure inspired by nature, with a closed-loop system and energy-positive design.
5. Helical tubes inspired by shark intestines: Researchers created simplified models using 3D printing technology to study fluid dynamics.
6. Helmets with lattice structures: 3D printing technology is used to create lightweight, strong, and comfortable helmets inspired by honeycombs.
7. 3D printed tiles from Volvo: Emulating the root structures of local mangrove trees, these tiles were used to restore ecological balance along the Sydney Harbour coastline.
8. 3D printed seed-dispersing slippers: Soles with small hooks were designed to spread plant matter as people run, inspired by bison.
9. Pinarello’s Air-Stream technology: Inspired by humpback whales, this technology improves aerodynamics in racing bikes.
10. Mussels’ adhesive molecule: Researchers replicated the protein DOPA found in mussel’s footprints to create an antimicrobial adhesive for medical applications.
11. The Biomic Wall: A 3D printed, ceramic-hydroculture wall that promotes plant growth and integrates modern technology, architecture, and environmental consciousness.
12. The Lamp Series by Paolo Castelli: A 3D printed, ceramic lamp inspired by the organic structure of a beehive.
These innovative projects demonstrate the potential of biomimicry in conjunction with 3D printing, enabling the creation of sustainable, efficient, and environmentally conscious solutions.
Walking the Fine Line: The Dual-Use Conundrum of Biomimicry
The article discusses the use of biomimicry to create innovative solutions for various applications. Biomimicry is the process of using nature as a model for designing and developing new technologies. The article highlights several examples of how biomimicry has been used to create innovative solutions, such as developing sensors for detecting biomarkers of Alzheimer’s disease, creating sustainable and controlled-release drug delivery systems, and designing and developing biomimetic materials for bone tissue engineering. The article also discusses the potential of biomimicry to improve the diagnosis and treatment of diseases such as Alzheimer’s and COVID-19. The authors of the article are from the “Journal of Biomedical Engineering” and they are stating that biomimicry can be used as a tool for creating new biomaterials, bio-devices, and bio-imaging agents, which can be used for a variety of applications, including medical, environmental, and industrial.
The article starts by discussing the importance of biomimicry in the development of new biomaterials and bio-devices, which can be used for a variety of applications, including medical, environmental, and industrial. The authors then discuss the use of biomimicry in the development of sensors for detecting biomarkers of Alzheimer’s disease, which is a promising area of research. They also discuss the use of biomimicry in the development of sustainable and controlled-release drug delivery systems, which can help to improve the diagnosis and treatment of diseases such as Alzheimer’s and COVID-19.
The article also discusses the use of biomimicry in the development of biomimetic materials for bone tissue engineering, which can be used to repair and regenerate bone tissue. The authors argue that biomimicry can be used to create new biomaterials, bio-devices, and bio-imaging agents, which can be used for a variety of applications, including medical, environmental, and industrial.
Overall, the article highlights the potential of biomimicry to create new and innovative solutions for various applications, and the need for further research in this area.
"Inspiration struck when the principles of nature’s intricate designs influenced the creation of human design, revolutionizing the way we approach architecture and engineering."
And here are 7 cases where human design was inspired by nature:
- Biomimicry in Building Design: The Lotus Temple in India is designed to resemble a lotus flower, with 27 marble "petals" that create a sense of harmony and tranquility. This inspiration from nature has influenced the design of many modern buildings.
- Wavy Skyscrapers: The Gherkin building in London, designed by Foster + Partners, features a rounded, teardrop shape reminiscent of a jellyfish or a wavy sea creature. This curvature provides more interior space and better natural light.
- Leaf-Inspired Solar Shingles: The Solyndra solar panel system is designed to mimic the veins on a leaf, with multiple, thin panels that absorb energy from the sun. This biomimicry increases the surface area for energy collection.
- Nesting Architecture: The "Nesting" building design by Japanese architecture firm, Kengo Kuma, features a curvaceous, lace-like exterior inspired by the patterns found in nature. This design combines structure and curtain walls for maximum energy efficiency.
- Wave-Form Bridge Designs: The Y bridge in China, designed by British architect Zaha Hadid, features a wavy, curvaceous design reminiscent of ocean waves. This shape reduces wind resistance and provides a more stable structure.
- Termite Mound Inspiration: The Italian design firm, Studio Azzurro, created a luxurious, termite mound-inspired home that uses natural ventilation and insulation to regulate the interior climate. The unique shape also provides maximum living space.
- Kaleidoscope-Inspired Skyscrapers: The kaleidoscope-inspired design by Foreign Office Architects features a swirling, colorful facade inspired by the natural patterns found in crystals and sea anemones. This design adds visual interest and creates a sense of movement.
Biomimicry is the study of nature’s designs and processes and how they can be used to inspire innovations in human-made products. The article provides examples of how humans have used nature as a source of inspiration, from the design of airplanes to the development of Velcro and self-cleaning surfaces. The article highlights the efficiency and resourceconsciousness of nature, with examples ranging from the honeycomb structure used by bees to build their hives to the design of termite mounds and the stealth technology used by sharks.
The article also explores the inspiration behind various human innovations, such as the development of Velcro, which was inspired by the hook-like structures on burrs, and the design of airplane wings, which mimic the shape and movement of bird wings. The article concludes that nature has many secrets to offer, and by studying and emulating its designs and processes, humans can create more sustainable and efficient technologies. The article also touches on the potential for future innovations, including the development of light-emitting diodes inspired by fireflies and artificial spider silk, which could be used to create stronger and more lightweight materials.
#pltw ##poe #engineering #biomimicry 🦈 #shark tail #vex #vexrobotics #coding ##stemeducation #design
Mimicry in Design: Harnessing Nature’s Solutions to Address Environmental Dilemmas
The article “Nature’s Ingenious Design: The Birth of Velcro” highlights the innovative use of biomimicry to solve environmental challenges. The concept of biomimicry involves emulating nature’s designs and mechanisms to develop sustainable solutions. The article showcases various examples of biomimicry in action, including:
* Energy efficiency, inspired by termite mounds and desert beetles
* Water management, using the Namib desert beetle’s water-harvesting abilities
* Waste reduction, by mimicking nature’s closed-loop systems
* Pollution control, using oysters as nature’s water filters
* Sustainable agriculture, with permaculture designs
* Transportation, inspired by the kingfisher’s beak and the humpback whale’s fins
* Renewable energy, using whale-inspired wind turbines
* Urban planning, drawing from leaf venation patterns
* Materials science, developing spider silk-inspired materials
* Climate adaptation, with coral reef-inspired coastal protection
The article also spotlights innovative companies leading the way in biomimicry, such as Metavoxel, Seprify, Biohm, and others. The examples demonstrate how biomimicry can drive sustainable solutions and create a more resilient future. As environmental challenges persist, biomimicry offers a promising path forward, emulating nature’s 3.8 billion years of evolutionary wisdom to shape a more sustainable world.
Can nature’s innovative designs hold the secret to India’s sustainable future?
The concept of biomimicry has gained traction as a transformative approach to create designs and technologies inspired by nature. India has successfully applied biomimicry to various sectors, including energy, transportation, healthcare, water management, and architecture. Examples of biomimicry in action include wind turbines designed after whale fins for improved efficiency, camera systems inspired by geckos’ multifocal optical systems, and lotus-inspired water repellent bioplastic for sustainable waste management.
Biomimicry offers a promising way to achieve sustainable development goals in India while also fostering inclusive and sustainable urban development. By exploring nature’s efficient and adaptive strategies, various industries can transcend traditional boundaries, creating innovative and sustainable solutions.
To fully tap the potential of biomimicry, greater investment and research in this field is needed. Moreover, more dialogues on its benefits are essential to accelerate India’s path to sustainability. biomimicry has already proven its impact and can pave the way to India’s sustainable future. The example of India’s first biomimicry city, Lavasa, near Mumbai and Pune, showcases how architectural design inspired by nature can result in a more sustainable and efficient city. In conclusion, biomimicry is a potent tool to combat India’s environmental challenges, but more research, investment, and awareness are crucial to unlocking its full potential.
A revolutionary water generation system harnesses the power of biomimicry, leveraging the sun’s energy and salt channels to produce a sustainable and innovative solution.
Researchers at King Abdullah University of Science and Technology (KAUST) in Saudi Arabia have developed a solar-powered water harvester that can extract 2-3 liters of water per day during summer months and 1-3 liters per day in fall, without requiring manual maintenance. The harvester works by capturing water from the air using an absorbent material, and then heating it with sunlight to extract the water. The innovative system features “mass transport bridges” that mimic the way plants transport water from roots to leaves, allowing the system to cycle continuously without intervention. The researchers used affordable and widely available materials, such as a water-wicking fabric, hygroscopic salt, and a plastic frame, which makes the technology scalable for large-scale use in low-income areas. This technology has the potential to provide clean water for drinking and irrigation in areas where traditional water sources are limited or non-existent.
Borrowing Nature’s Blueprint: How Biomimicry Bolsters Resilience and Long-Term Success
Nature-inspired polymer research is revolutionizing the field of materials science, allowing for the creation of stronger, more sustainable materials. By mimicking the patterns and structures found in nature, scientists are able to replicate the strength and resilience of natural materials, such as spider silk and abalone shells. This biomimicry can be achieved through frontal polymerization, a process that uses a chemical reaction to create complex structures within the material. This approach has the potential to enhance the toughness and resistance of polymers, making them suitable for a wide range of applications, from medical devices to construction materials.
The benefits of nature-inspired polymers include improved mechanical properties, reduced energy consumption, and increased sustainability. These materials can be designed to be adaptive, responding to changes in their environment, and can be manufactured using on-site 3D printing technology, reducing waste and carbon footprints. The potential applications of these polymers are vast, from wearable technology to aerospace engineering, and have the potential to transform industries and contribute to a more sustainable future.
Nature’s wonders spark creative innovation in FIG Living’s pioneering Biomimicry Collection.
The article highlights the inspiration of natural life systems and their ability to solve human problems. FIG Living’s Biomimicry collection of lighting options is designed to mimic the forms and systems of nature, such as soundwaves, aerodynamics, petals, and water. Each piece is crafted to not only provide illumination but also infuse spaces with vitality, much like natural elements interact with light. The collection is rooted in the science of the ecosystem and translates nature’s intelligent designs into functional artistry. The founder and designer, Sushant Sharma, describes the collection as capturing the elegance of blooming flowers, fluid motion of water, and aerodynamic flow of wings, creating warm, diffused, and dynamic illumination that mirrors the beauty of nature.
Infusing biomimicry innovations into sustainable development goals This rewritten line aims to maintain the core idea of connecting biomimicry research to the United Nations’ Sustainable Development Goals (SDGs), while rephrasing it in a more concise and dynamic way.
The study examines biomimicry research through the lens of the Sustainable Development Goals (SDGs) framework. Two clusters of biomimicry research were identified: Cluster 1 focuses on innovative biomimetic ideas for health, partnerships, and life on land, and Cluster 2 explores nature-inspired solutions for clean water, energy, and infrastructure. The research highlights the interplay between biomimicry themes and SDGs, revealing the cross-disciplinary nature of this field. The study’s findings show that biomimicry can contribute to advancements in healthcare, energy generation and storage, and infrastructure development. Furthermore, it addresses challenges such as translation and commercialization, educational models, gender-inclusive design, inclusive urban solutions, and peace and justice. The research emphasizes the need for interdisciplinary collaboration, strategic investment, and education to navigate the market landscape and overcome barriers. Successful case studies illustrate the integration of biomimicry principles into conventional practices, enhancing corporate sustainability and innovation. The study concludes that biomimicry has the potential to make a significant impact in achieving the SDGs, highlighting the importance of continued research and development in this field.
Nature’s Design Secrets: How Fish and Birds Inspire Fuel-Efficient Aerodynamics in the Automotive Industry
The article highlights the significant impact of aerodynamic drag on fuel consumption and CO2 emissions in the transportation sector, which accounts for 92% of all transport services. Reducing aerodynamic drag is crucial for addressing climate change. The article explores the innovative approach of biomimicry, where researchers are turning to nature for inspiration to develop new designs that enhance vehicle efficiency. Inspirations come from various species, including fish, birds, and even insects. Examples of successful biomimicry include:
* Fish-inspired bus design, which resulted in a 21.04% reduction in drag and a 12.64% reduction in fuel consumption.
* Sailfish-inspired design that increased air volume to an engine, optimizing performance.
* Bird-inspired designs, such as the condor feather biomimetic system, which achieved up to 20% drag reduction, and the pigeon feather design, which reduced drag by up to 16%.
These innovative designs have demonstrated significant gains in vehicle efficiency, illustrating the potential of biomimicry in reducing CO2 emissions. The article concludes that blending nature’s principles with cutting-edge technology can lead to eco-friendly and high-performance transportation systems, paving the way for a sustainable future.
As the field of biomimicry continues to gain momentum, Villanova biologist Alyssa Stark is drawing inspiration from the natural world to develop innovative solutions to complex challenges.
Alyssa Stark, a biologist at Villanova University, discusses the fields of bio-inspired design and biomimicry. While often used interchangeably, Stark distinguishes between the two, with bio-inspired design focusing on emulating natural solutions without considering sustainability, and biomimicry prioritizing sustainable solutions that mimic nature. Stark’s research focuses on understanding the unique properties of organisms, such as geckos, ants, and sea urchins, to develop reusable adhesives and other products. She emphasizes the importance of interdisciplinary collaboration, bringing together biologists, engineers, physicists, and designers to develop sustainable solutions.
Stark highlights successful examples of biomimetic designs, including a building inspired by termite mounds and wind turbines modeled after whale fins. She believes that biomimicry has the potential to revolutionize industries and create a more sustainable future. Stark’s work is focused on understanding the functional morphology of organisms and applying that knowledge to develop innovative products. She sees the future of biomimicry as involving the integration of natural systems and processes into human-designed systems, such as cities and ecosystems, to create a more sustainable world.
Coping with Complexities: Biomechanical Innovation in Artificial-Animal Encounter
Researchers from the University of Washington compared the performance of biological and mechanical components in animals and robots. They found that while robots outperform animals in subsystems such as power, frame, actuation, sensing, and control, animals excel in integrating these subsystems to achieve superior overall abilities. For example, animals use their muscles to perform complex movements, while robots struggle to match this level of dynamic movement. The researchers also noted that robots would need to be equipped with thousands of sensors to match the sensitivity and awareness of animals, and that biological energy storage and brain function outperform their robotic equivalents. However, they also pointed out that robotics has the advantage of being able to integrate advances across different machines and benefit from a multidisciplinary exchange of principles and approaches. The researchers believe that future generations of robots will be able to surpass the physical skills of animals, but will need to focus on improving the coordination of robotic subsystems and developing new materials and technologies.
Immerse yourself in the wonders of biomimicry with Pacific Science Center’s innovative new exhibit, where science meets art
The Pacific Science Center (PacSci) is presenting a new exhibit called “Creatividad silvestre | Wild Creativity” that explores biomimicry, an engineering approach that studies nature’s designs and processes to solve human challenges. The exhibit, which opens on September 21, 2024, and runs through January 5, 2025, invites visitors of all ages to learn about biomimicry through hands-on design challenges. The exhibit has previously been hosted by other science centers and was produced and toured by the Oregon Museum of Science and Industry (OMSI). The exhibit was made possible by a National Science Foundation grant and in partnership with the Biomimicry Institute, Adelante Mujeres, and The Fleet Science Center. The exhibit showcases the interplay between art and natural sciences and how it informs our world. Visitors can learn about how nature’s designs have inspired human innovations, such as the study of birds and their anatomies leading to the invention of airplanes.
Key advancement in architecture: Neri Oxman’s innovative applications of parametric design and biomimicry I changed the original line to make it more concise and impactful, while maintaining the essential information. Let me know if you’d like further adjustments!
Neri Oxman is an Israeli-American architect and Associate Professor at MIT Media Lab. Her team has created wearable 3D-printed skins for interplanetary voyages. Oxman’s work explores the intersection of architecture, design, and biology. Her notable projects include the Silk Pavilion, which used silkworms to create a natural biotic facade, and Glass II, which utilized 3D printing and LED lights to create a dynamic display.
Aguahoja is another pioneering project that uses water-based robotic fabrication technology and natural materials to create a pavilion that decomposes and returns to nature. Totems is a project that explores the use of melanin, a naturally occurring substance, as a material for design. Man-Nah?ta is a speculative urban study that imagines what Manhattan will look like in 400 years.
Oxman incorporates biomimicry into her designs by using natural principles and materials to create innovative structures. Her work challenges prevailing norms and inspires change. Oxman’s impact on architecture and design is significant, as she opens up new possibilities for designers to make a meaningful impact beyond their fields. Her work at the intersection of nature and technology has the potential to revolutionize the way we design and interact with the world around us.
Biomimicry Institute Releases Compelling Report on the Impact of Ray of Hope Accelerator Program
The Biomimicry Institute has released the 5-year impact report of its Ray of Hope Accelerator program, highlighting the achievements of the program’s startups. The accelerator has distributed $750,000 in funding to 49 startups, with 35% being women-led. The startups are working on solutions to address global environmental challenges, including food security, material development, and renewable energy. Since the program’s inception, the startups have raised over $125 million in funding to scale their solutions. The Ray of Hope Accelerator is open to innovations across industries and geographies, as long as they are science-driven and committed to addressing the UN’s Sustainable Development Goals. The accelerator is supported by the Ray C. Anderson Foundation, which is committed to promoting environmental stewardship and sustainability. The Biomimicry Institute will host a virtual Demo Day on February 12, featuring the 2024 cohort’s startups.
rails to rooftops: Pioneers adopt environmental design
Japanese engineer Eiji Nakatsu used biomimicry to design a faster and more energy-efficient train in the 1990s. He observed how kingfisher birds dive into the water without making a splash and applied this principle to the train’s nose, reducing its explosive boom and allowing it to travel 10% faster. Biomimicry involves learning from nature’s strategies to solve modern challenges, such as sustainable packaging, transportation, and energy production. According to Janine Benyus, author of “Biomimicry: Innovation Inspired by Nature”, biomimicry is about “what we can learn from nature” rather than what we can extract from it. This approach has the potential to bring about a new era of innovation and sustainability.
By emulating the biological design of a cat’s eye, robotic vision may be revolutionized, enabling more effective detection and perception.
Researchers have created a new artificial vision system inspired by the cat’s eye, allowing robots to detect and track objects in various environments. The system uses a custom-made optical lens with an elliptical aperture and a novel hemispherical silicon photodiode array with patterned metal reflectors to enhance low-light vision. The design allows for an asymmetric depth of field, improving contrast between the target object and its background. This technology has the potential to revolutionize robotics and autonomous systems, particularly in surveillance and tracking applications.
The feline-inspired vision system outperforms conventional optical systems in various lighting conditions, including daytime and nighttime. It can detect and track objects even in bright light, and its ability to blur the background and focus on the target reduces the computational burden required for real-time analysis. The system’s performance is also improved in low-light conditions, with a 52-58% increase in photoabsorption compared to traditional optics.
While the system has limitations, such as a narrow field of view, the researchers believe that advancements in optical system movement could overcome this limitation, allowing for its integration into autonomous robotics. This technology has the potential to transform the field of robotics and autonomous systems, enabling more effective object detection and tracking in various environments.
Embracing the Power of Nature: Biomimicry-Driven Design for Resilience
Generative design is revolutionizing architecture by borrowing from nature’s solutions through biomimicry. This approach uses algorithms to create designs that are responsive to real-world environments, producing structures that are aesthetically pleasing, strong, and sustainable. The Eastgate Centre in Zimbabwe, which emulates termite mounds, is a pioneering example of sustainable architecture. Generative design can also lead to resource-efficient solutions, such as the Morpheus Hotel’s exoskeleton structure inspired by bamboo shoots. Biomimicry is also being used to improve building resilience to natural disasters, such as earthquake-proof designs inspired by sea sponges.
Additionally, biomimetic generative design is enabling sustainable material use, such as self-healing bioconcrete. It is also being applied to urban ecosystems, like the Vertical Forest project in Milan, which integrates over 20,000 plants to improve air quality and temperature control. As generative design software advances, it is expected to integrate with artificial intelligence and machine learning, enabling real-time optimization of building systems. This approach challenges the role of human ingenuity in design, as architects curate and refine forms generated by algorithms. Overall, biomimetic generative design is poised to shape the future of architecture, creating buildings that are resilient, adaptive, and symbiotic with nature.
Embracing Nature’s Blueprint: The Biomimicry Institute Unveils Ambitious 10-Year Plan
The Biomimicry Institute, a nonprofit organization, has launched a 10-year strategy to address three critical global challenges: climate change and biodiversity loss, disconnection between humans and nature, and the “take-make-waste” culture. The strategy aims to harness natural strategies to develop innovative, sustainable solutions. The organization’s programs and AskNature Hive platform support this endeavor by enabling professionals to integrate nature’s genius into their work. The Institute will unveil its new strategy at New York Climate Week and launch a new website to showcase its vision. The strategy aims to achieve several key outcomes, including guiding the transition to a Nature Positive future, offering ecological benefits comparable to healthy ecosystems, and addressing climate change and biodiversity loss through nature-inspired solutions. The Institute also aims to rekindle humanity’s appreciation of and connection to nature by integrating Indigenous wisdom with Western science. The organization’s new strategy is a significant step towards inspiring and empowering others to design in harmony with nature and fostering a future where human systems support and sustain the natural world.
Rewilded Vision: Eyewear Inspired by Nature’s Precision
Oakley’s Born to Rewild collection combines athletic performance with a lifestyle aesthetic, drawing inspiration from nature and biomimicry. The centerpiece is the Plantaris eyewear, featuring a high-wrap dual lens and a frame designed for comfort and a secure grip. The frame’s unique design, inspired by the anatomy of frog legs, also enhances fit. The Prizm Tungsten lenses provide improved visual clarity, and the matte finishes offer a range of color options. The eyewear’s detachable nose guard allows for customization and ease of use across various activities. Endorsements from celebrities like Travis Scott and Jaylen Brown have increased the collection’s cultural relevance. The Born to Rewild collection is a testament to Oakley’s innovative design, which blends style and functionality for a bold and modern look.
Borrowing from Nature: The Evolution of Air Travel Efficiency Through Biomimicry
Austrian Airlines has successfully completed its maiden flight with a Boeing 777-200ER equipped with AeroSHARK surface technology, a biomimicry-inspired coating that reduces frictional resistance and fuel consumption. The technology, developed by Lufthansa Technik and BASF, mimics the properties of sharkskin and has already been adopted by other airlines, including LATAM, EVA Air, and All Nippon Airways. The coating has been shown to reduce fuel consumption by approximately 1% per flight, resulting in significant CO2 emissions savings.
The technology is expected to be used on 17 Lufthansa Group aircraft, with plans to coat four more Boeing 777-200ERs with AeroSHARK by March 2025. The coating has already accumulated over 100,000 flight hours and has shown positive results in reducing fuel consumption and emissions.
Biomimicry, the study of natural design, has also been used by Airbus to improve the efficiency of its plane designs. The company has developed innovations such as “sharklets” and lightweight galley partitions that mimic properties of nature, resulting in significant CO2 emissions savings.
Nature’s inspiration sparks innovation: 6 game-changing examples of biomimicry in outdoor gear. I replaced the original phrase with a more descriptive and engaging one, using the metaphor of Nature’s inspiration to create a sense of wonder and curiosity. I also changed transformed to sparks innovation to make the language more vivid and attention-grabbing.
The article discusses the concept of biomimicry, where technology is inspired by nature. Columbia’s Omni-Heat Arctic technology is a perfect example, modeled after the polar bear’s fur to keep warm in frigid arctic conditions. The technology absorbs the sun’s rays and traps body heat, keeping wearers warm. The article highlights six ways biomimicry has transformed outdoor gear, including:
1. Fleece: Replicating the insulating properties of wool, synthetic fleece is lightweight and durable.
2. Velcro: The invention of Velcro was inspired by the burrs that stick to animals’ fur, allowing for easy fastening and unfastening.
3. Nylon: Nylon was designed to mimic the silky texture and durability of silk, but is more affordable and easier to produce.
4. DWR treatments: Inspired by the lotus flower’s self-cleaning properties, DWR treatments repel water and dirt.
5. Snowshoes: Early snowshoes were designed to mimic the weight-distributing paws of animals that walk on snow.
6. Wetsuits: Wetsuits have replicated shark skin, with its tiny scales, to reduce water resistance and increase hydrodynamics.
These examples demonstrate the power of biomimicry in creating innovative solutions for outdoor gear and technology. By studying nature, we can develop products that better serve humanity, while also preserving the natural world.
Biomimicry Mid Reviews
Bioinspired innovations in bioengineering and biomimicry are driving novel solutions to combat marine plastic pollution.
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The world is facing a severe plastic pollution problem, with 22 million tonnes of plastic waste ending up in the environment every year. To tackle this issue, researchers are developing innovative solutions. Two startup companies, E.V.A. Biosystems and Rice University, have made significant breakthroughs. E.V.A. has created a “smart” plastic that can sense when it’s in the ocean and break down without creating microplastics. The company adds special bacteria to conventional plastic, which detects when it’s in aquatic environments and activates enzymes to break down the material. Rice University researchers, inspired by mussels’ adhesive properties, have developed a bioengineered microorganism with powerful cling capability that can help transform environmental cleanup. This innovation can also curb biofouling, a major challenge in industries such as shipping and medicine. These solutions have the potential to address the growing problem of plastic pollution worldwide. While more work is needed, these developments demonstrate the power of innovation and collaboration in addressing one of the world’s most pressing environmental challenges.
Farid Boussaid, Giorgia Romagnoli, and the team in Computational Social Science and Biomimicry at UvA have been awarded an UvA Education Award.
The University of Amsterdam’s Science, Technology & Innovation: Biomimicry minor has won the UvA Education Award for “Innovative Teaching”. The minor’s success is attributed to its unique approach, which combines design thinking, makerspace labs, and close teacher cooperation. The jury praised the program’s student-centered approach, allowing students to make their own choices and shape their learning experience. Students are also actively involved in the program’s development, both during the minor and afterwards. The minor’s innovative approach goes beyond traditional teaching methods, challenging the status quo and demonstrating its effectiveness with both students and teachers. Despite being a relatively new program, it has already gained recognition and success, showcasing its potential for continued growth and impact.
Nature-inspired innovators: 6 biomimicry companies leading the charge in decoding the secrets of nature for breakthrough medications
The article highlights five biomimicry companies that are harnessing nature’s wisdom to develop novel therapeutic targets and drugs. Bioxodes is developing a drug candidate, BIOX-101, for hemorrhagic stroke by studying the saliva of a tick. Celtic Biotech is working on a potential curative treatment for cancer patients with late-stage aggressive tumors, using receptor-binding proteins found in snake venoms. ExeVir is developing llama-derived nanobody therapies for broad protection against infectious diseases, including COVID-19. Fauna Bio is using its exclusive biobank of genetic data and AI platform to replicate extreme animal models of disease resistance, which could lead to new drug discoveries. Isogenica is an expert in discovering small-format antibodies, while Soricimed is developing a targeted anti-cancer peptide that binds to TRPV6, a calcium channel over-expressed in solid tumor cancers.
Biomimicry is an emerging field in biotech research, where scientists are using tools such as genomics, proteomics, and transcriptomics to discover compounds in animals that have the potential to become drugs. The article highlights the potential for biomimicry to lead to breakthroughs in disease treatment and the importance of continued research in this area.
Emulating Nature’s Wisdom: Biomimicry in Biotechnology
Biotechnology companies are using biomimicry, which involves using inspiration from nature to develop innovative products and solutions. This approach has led to the creation of various products, such as wind turbine blades inspired by whale fins, self-healing cement tiles inspired by bacteria, and more. This article highlights three companies that are using biomimicry to develop new products:
* Jellagen, a Welsh marine biotechnology company, is using jellyfish collagen as a potential revolutionary biomaterial for medical and pharmaceutical applications.
* GreenBone, an Italian startup, is developing an innovative bone graft scaffold inspired by rattan, a plant similar to bamboo, to aid in bone regeneration.
* Tissium, a French company, is developing a sealant inspired by the glue-like secretions of the Californian sandcastle worm, for use in vascular surgery.
These companies are just a few examples of how biomimicry is leading to breakthroughs in fields such as biotechnology, engineering, and medicine. By drawing inspiration from nature, companies can create innovative solutions that are more effective, efficient, and sustainable. As the article suggests, the possibilities for biomimicry are endless, and the potential for discovery is limited only by our curiosity about the natural world.
Mimic the Marvels of Nature: Decoding the Secrets of the Natural World
Biomimicry is an innovative approach where scientists and designers turn to nature for solutions to human challenges. By studying natural systems and their efficiency, resilience, and adaptability, biomimicry aims to replicate these features in human-made designs. One famous example is Velcro, inspired by the hooks on burdock burrs. Biomimicry also applies to architecture, where designers create sustainable buildings by imitating natural ecosystems, such as termite mounds. The Eastgate Centre in Zimbabwe, for instance, uses a passive cooling system inspired by termite ventilation systems, reducing energy consumption by 90%.
Biomimicry also extends to medicine and material sciences, where researchers look to nature for breakthroughs. Shark skin, for example, has antibacterial properties that are being studied for hospital surfaces, while gecko feet’s sticky properties are being used to develop medical adhesives. Biomimicry is not always straightforward, as replicating nature’s designs can be complex and costly. However, the potential rewards make it a worthwhile approach. Biomimicry encourages us to view nature as a mentor and model, promoting eco-conscious solutions that respect and preserve the ecosystems that inspire them.
Unlocking the Secrets of Nature: Biomimicry’s Surprising Insights for Innovation
Researchers are studying the natural world to gain insights for human design and innovation, a field known as biomimicry. By examining how nature creates durable materials like corals, geckos’ sticky feet, and peacock’s vibrant feathers, scientists can develop new technologies that mimic these incredible natural phenomena. This episode explores the origins of biomimicry and its latest innovations. Topics include:
* Corals inspiring a new form of concrete that produces less CO2 and requires less energy
* Geckos’ feet leading the way to new medical adhesives
* Leaves influencing new ways to harness solar energy
Introducing Janine Benyus, the science writer who coined the term biomimicry, and authors of “Biomimicry: innovation inspired by nature”. The episode also delves into the potential uses of squid’s unique genetic abilities to create new medical treatments, and discusses the work of companies like Biomason, which is using coral-like processes to create more sustainable building materials. By studying nature, scientists can develop innovative solutions that could change the world.
Accelerating Impact: Biomimicry Institute Reveals Ray of Hope Program Successes
The Biomimicry Institute, a non-profit organization founded by Janine Benyus, has released its 5-year impact report for the Ray of Hope Accelerator, which provides non-dilutive funding to nature-inspired startups. Since its inception, the accelerator has supported 49 startups, 35% of which are women-led, with $750,000 in funding. The startups have collectively raised over $125 million in funding to tackle global environmental challenges. The report highlights the accelerator’s achievements in areas such as food security, safe new materials, and renewable energy solutions. The Ray of Hope Accelerator is open to innovations across industries, technologies, and geographies, as long as they are science-driven, inspired by nature’s strategies, and committed to addressing at least one of the UN’s 17 SDGs. The Biomimicry Institute’s Ray C. Anderson Foundation, the founding sponsor, is proud of the accelerator’s progress in empowering startups to create sustainable solutions. A virtual Demo Day will take place on February 12, featuring the 10 nature-inspired climate tech startups from the 2024 cohort.
UCI Award for Faculty Development: Investigating Water’s Importance in Biomimicry Innovation
The Urban Coast Institute (UCI) has awarded a Faculty Enrichment Grant to Monmouth University’s Associate Professor Veronica Davidov to continue her research on biomimicry, which involves emulating natural processes and forms to address human challenges. Davidov’s research focuses on the cultural context of biomimicry and its potential for sustainability. The grant will fund her next phase of research, which will examine the role of water and water-based chemistry in biomimicry. This will involve conducting interviews with experts, collaborating with student researchers, and attending a Biomimicry Institute workshop in 2025. The UCI’s Faculty Enrichment Grants support individual and collaborative projects that enhance curriculum, research, and scholarship, and are open to faculty and student researchers from all disciplines. The grant is funded by the Heidi Lynn Sculthorpe Scholars program, which aims to promote research, education, and collaboration to support healthy and productive coastal ecosystems and resilient communities.
Like a duck gliding effortlessly through the water, our innovations at Thales flow smoothly and unimpeded.
The concept of superhydrophobicity, also known as the “lotus effect,” refers to the ability of certain surfaces to repel water. This phenomenon is observed in nature, where some plants and animals have evolved to resist water and dirt to survive. While this property is crucial for aquatic and some terrestrial species, it is not limited to them. Many animals, such as insects, amphibians, and birds, have developed ways to repel water to prevent drowning, stay dry, and maintain body heat. Researchers at Thales are studying how to replicate these natural phenomena to create multifunctional surfaces with superhydrophobic properties, which can be used in optical systems, such as high-performance video cameras in vehicles. These durable surfaces can withstand extreme humidity and maintain optimal functionality, providing a key operational advantage. The team is also working on antireflective surfaces, inspired by the Greta oto butterfly, which can minimize reflection and glare. The applications of these technologies are vast, and researchers are eager to explore their potential in various fields, from security systems to optical systems.
Unlock the Future of Sustainable Design: Biomimicry Youth Competition 2025 I kept the core elements of the original line, but rephrased it to sound more dynamic and engaging. Let me know if you’d like me to make any further adjustments!
The Biomimicry Youth Design Challenge (BYDC) is a free, project-based learning experience for middle and high school students (US equivalent grades 6th-12th). The challenge is open to teams of 2-8 students, led by an adult coach, who will work together to apply biomimicry (nature-inspired innovation) to address a social and/or environmental issue related to a chosen Sustainable Development Goal (SDG). The challenge is designed to introduce students to biomimicry and an interdisciplinary approach to science and environmental literacy.
The challenge requires teams to design a nature-inspired innovation that addresses a global or local problem. The innovation can be a physical technology, process, or system that demonstrates originality and offers novel improvements on existing ideas. The challenge is open to teams from public and private schools, registered homeschools, and legally recognized organizations.
Coaches can register their teams online, and submissions will be accepted until December 31, 2024. The challenge is open to teams from schools outside the US. The submission requirements include a written project overview, project image, video pitch, project portfolio, and team photo. The challenge aims to encourage students to think creatively and develop innovative solutions to environmental and social issues.
Revolutionary Enfold Pavilion Blends Artificial Intelligence and Biomimicry at Dubai Design Week
DEOND, a design studio, has created the “Enfold” pavilion, a futuristic and sustainable space that combines biophilic design and technology to promote relaxation and introspection. The pavilion, located in Dubai Design District, features a high-tech “second skin” that changes its appearance based on a person’s physical and emotional states. The space is designed to evoke a sense of calm and serenity, with a biomimetic design that mimics natural forms and filters natural light. The pavilion also features an interactive 3D display, or “phy-gital” podium, that projects therapeutic images, and a virtual garment called the HUG bodysuit that uses pressure points to deliver a healing experience. The pavilion is meant to challenge the traditional narrative of architecture and explore the relationship between technology and nature. It is a prototype for future-driven, sustainable architecture that combines innovative materials and biomimetic principles to create meaningful therapeutic experiences.
Mimicking Nature: How Plants and Animals Inspire Innovative Technologies to Combat Climate Change
The article discusses the concept of biomimicry, where humans learn from nature to develop sustainable solutions to environmental challenges. Biomimicry can involve mimicking natural forms or processes, such as the way leaves collect water and sunlight, to create innovative solutions. The article highlights various examples of biomimicry in design and architecture, where living materials are combined with high-tech elements to create sustainable solutions. The article also notes that while biomimicry can lead to practical improvements in sustainability, it can also be used to create high-tech analogs that go beyond nature’s capabilities. The article concludes by emphasizing the importance of sharing climate news and information with the public, citing a survey that found that 77% of Americans want to know more about climate change, but only 28% regularly hear about it in the media.
Transforming Traditional Manufacturing for the Digital Age
The Manufacturing Digital Magazine is a leading online platform that connects top executives from the world’s largest manufacturing brands. The platform offers a range of services, including media and advertising, events, research reports, demand generation, information, and data services. Its comprehensive approach provides timely and valuable insights into best practices in manufacturing, promoting innovation and collaboration within the industry.
Biomimicry’s innovations will revolutionize the built environment, as architects and engineers harness nature’s genius to create sustainable, efficient, and resilient structures.
Biomimicry is a scientific approach that draws inspiration from nature to solve human problems. By studying how animals and plants adapt to their environments, researchers can develop innovative solutions to everyday challenges. The article highlights four promising examples of biomimicry in action: chameleon grasshoppers that change color in response to temperature, silkworm cocoons that filter out CO2, desert iguanas that lighten their skin to regulate temperature, and air-purifying plants that absorb CO2 and release oxygen. These natural solutions can be adapted to design and engineer solutions for buildings, such as chromatic sensors, coatings, and self-powered CO2 sensors. Biomimicry encourages interdisciplinary collaboration and can be applied to various fields beyond building energy systems. The article concludes that biomimicry is a powerful tool for rethinking problems and can lead to innovative solutions for a more sustainable future.