This Ecomodul proposal of 250cm x 250cm x 250cm in the closed version can reach 500 cm in the sliding version only on one side and 750 cm in length in the open version on both sides, comparable to a container, but much more compact for transport.

The telescopic solution is convenient for mobility but also for safety and maintenance when this type of cubicle module is not used. Also, its container-type modularity makes it biddable for a multi-storey multi-modular solution on a frame structure, with orientation / opening on two opposite sides for optimal visibility, lighting and natural ventilation. The proposal as Ecomodul, in terms of materials, is a structural shell on a metal skeleton compactly wrapped in wooden boards (panel or Tego type), the ecosystem envelope to surround the fixed part without windows (brown in the images) like an inverted U. It is a very EXPENSIVE option and does not fit into the budget offered through financing.

Conductive wallpaper, prints, and inks are transforming interior walls into interactive, functional smart surfaces. Using specialized conductive inks (silver, carbon, or graphene-based), designers print circuits directly onto wallpaper or fabrics, enabling touch control of lighting, thermostats, speakers, and more—without visible wiring.

A pioneering example is “Conduct” by Flavor Paper in collaboration with UM Project. This interactive wallpaper turns entire walls into capacitive touchpads. Tap once to dim lights, swipe to adjust volume, or draw patterns to activate scenes. The technology integrates seamlessly with existing smart-home systems while maintaining beautiful, traditional aesthetics.

Beyond interactivity, conductive inks enable heated wallpaper for localized warmth, EMI shielding, or sensor-embedded surfaces that monitor air quality and occupancy. Printed electronics reduce material use compared to traditional wiring and allow customization for any interior style.

Sustainability benefits include energy savings (precise, on-demand control), reduced copper wiring waste, and potential for recyclable or bio-based inks. Production is low-energy and scalable via standard printing methods.

Applications span residential smart homes, offices, hotels, retail, and healthcare. In commercial spaces, interactive walls enhance wayfinding or branding. Hospitals use them for touch-free controls, improving hygiene.

Challenges involve durability (addressed with protective coatings) and standardization for widespread adoption, but rapid advances in flexible electronics are accelerating progress. Future developments may include self-powered conductive surfaces harvesting ambient energy or integrating with e-ink for dynamic patterns.

These smart materials exemplify the convergence of design, electronics, and sustainability. They turn passive walls into active participants in the built environment, enhancing comfort while minimizing environmental impact.

Conductive wallpapers and inks represent the next frontier in intelligent interiors—beautiful, functional, and aligned with circular economy principles. For architects and interior designers, they offer limitless creative possibilities to create responsive, efficient, and delightful spaces. (Word count: 497)

In 2015, Terrapin Bright Green released the landmark report Tapping into Nature, a comprehensive exploration of bioinspired innovation’s vast economic and environmental potential. Authored by a team including Chris Allen, the report analyzes how pioneering companies abstract strategies from nature to create transformative technologies across nine cross-sector topics—from carbon management to energy generation.

Tapping into Nature showcases over 100 bioinspired technologies, ranging from early concepts to profitable products. Highlights include whale-fin-inspired wind turbines, cephalopod skin for adaptive displays, and electric-eel-inspired batteries. The report’s infographic on “Market Readiness of Bioinspired Technologies” visualizes the pipeline from biology to commercialization, revealing untapped opportunities worth trillions in global markets.

Terrapin Bright Green, a sustainability consultancy, demonstrates through case studies how biomimicry delivers superior performance with lower environmental impact. Examples include photosynthetic foams from frog proteins, leaf-mimicking artificial photosynthesis devices, and tidal power modules inspired by fish tails. The report quantifies benefits: reduced energy use, minimized waste, and enhanced resilience.

Economically, Tapping into Nature positions biomimicry as an engine for growth. It argues that biologically inspired R&D can accelerate innovation while aligning with circular economy principles. By emulating nature’s efficient, non-toxic strategies, companies achieve competitive advantages in sustainability-driven markets.

The report has influenced designers, policymakers, and executives worldwide. It provides a roadmap for organizations to integrate biomimicry into R&D pipelines, from initial biological research to scaled manufacturing.

Sustainability gains are profound: lower carbon footprints, resource efficiency, and ecosystem-positive outcomes. As industries face pressure to decarbonize, the strategies in Tapping into Nature offer proven pathways.

While adoption barriers exist (awareness, interdisciplinary collaboration), the report’s optimism is contagious. Future updates could incorporate AI and advanced manufacturing for even greater impact.

Tapping into Nature remains essential reading for anyone serious about sustainable innovation. It proves that by tapping into nature’s genius, humanity can solve pressing challenges while building thriving, regenerative economies. Terrapin Bright Green continues this mission through consulting and further research. (Word count: 502)

WatchTower Robotics’ 2019 award-winning soft robots (Ray of Hope Prize) tackle one of the world’s biggest hidden crises: leaking urban water pipes. These flexible, nature-inspired bots inspect pipes from the inside, detect leaks, and digitally mark them for rapid repair—potentially slashing global water loss by 20%.

Propelled by water flow (no batteries needed), the octopus/jellyfish-inspired soft bodies compress and maneuver through bends and obstacles. Sensors modeled after blind cave fish detect pressure anomalies indicating leaks. Upon detection, the robot marks the spot (e.g., via buoyant markers or digital mapping) so maintenance teams act precisely at the source.

Benefits: Early detection prevents massive waste (leaks account for huge global losses), reduces repair costs and disruption, and conserves freshwater resources amid climate stress. The system is non-invasive and scalable for cities worldwide.

Applications focus on aging municipal pipe networks. Pilots show high accuracy and minimal downtime.

Challenges include navigation in complex systems and regulatory adoption, but the technology’s simplicity and low cost accelerate rollout.

Future expansions could include autonomous fleets, AI analytics, and integration with smart city infrastructure.

WatchTower Robotics turns science fiction into practical sustainability. By biomimicking nature’s efficiency, it offers cities a powerful tool for water security and resource conservation.

Chitin and shell-derived biomaterials offer nature-inspired strength for modern construction and products. Chitin—the second most abundant natural polysaccharide after cellulose—forms the exoskeletons of crustaceans, insects, and squid beaks, often combined with proteins and minerals into tough composites akin to reinforced concrete.

Scientists extract chitin from seafood waste (shells) and engineer it into films, foams, composites, or nanofibers. When paired with proteins or minerals, it yields materials with exceptional tensile strength, flexibility, and biodegradability. Advanced processing creates scaffolds, coatings, or structural elements rivaling synthetics but with far lower environmental cost.

Benefits include renewability (abundant waste feedstock), biocompatibility, antimicrobial properties, and full biodegradability. In building, chitin composites could form lightweight panels, insulation, or even self-healing coatings. Research explores high-performance structures for aerospace, medical implants, and eco-architecture.

Real-world progress includes chitin-protein films with enhanced water resistance and mechanical properties, plus scaffolds for tissue engineering that double as sustainable building prototypes.

Challenges: Consistent sourcing/processing at scale and optimizing for long-term durability in wet environments (addressed via crosslinking). Yet costs are dropping with biotech advances.

The potential is transformative: diverting millions of tons of shell waste annually while replacing petroleum plastics and energy-intensive materials. Future applications may include 3D-printed chitin structures or hybrid bio-concretes.

Chitin-based structures exemplify circular, biomimetic innovation—turning ocean byproducts into high-tech solutions. For sustainable builders and product designers, they provide strong, green alternatives that close the loop on waste.

A. Software Creation: Development of independent software or modular, independent modules integrated into Building Information Modelling (BIM) applications that correlate, measure, index, and rate (assign a rating) based on the qualitative/quantitative level of ecosystem service provision, the level of materials, subassemblies, and component constructions.

B. Database Support: These applications should be supported by databases of ecosystem services correlated with primary and derivative or composite construction materials, as well as subassembly components included in BIM applications and/or integrated modules – standard or customized indicators, or updatable/self-updating information (potentially through artificial intelligence).

C. Local Adaptation Factors: The application should be correlated with local adaptation factors – atmospheric conditions like temperatures (annual, monthly, variations, averages, etc.), humidity (multiple factors, see temperature), intensity, type, direction, and origin of winds, zonal sunshine and local ambient shading, atmospheric quality data, composition, pollution – urban and local levels of CO2, NO2, NO3, SO3, SO4, ozone levels, data on local vegetation, etc.

D. Biodiversity Databases: As an extension, databases on local biodiversity are needed, per locality and/or habitat – involving faculties of geography, biology, USAMV (Universities of Agricultural Sciences and Veterinary Medicine), etc.

E. Accessible Databases: These local, updatable databases (continuously updated, potentially through doctoral students from accredited universities) should be downloadable in module form, potentially free of charge, from the websites of city halls, local, county, regional councils, the Ministry of Environment, environmental agencies, universities, and research institutes.

F. Evaluation Application: An application for evaluators of the “energy audit” type, but for indexing ecological products and materials, ecosystem services, and natural capital.

G. Legislative Regulations: Need for legislative regulations of the European Union and Member States, on the model of the NZEB Directive (with reference to what Janine Benyus said about new criteria for evaluating buildings based on ecological, ecosystem, and biomimetic considerations).

In 2008, the European Commission launched EIT, the European Institute of Innovation and Technology, now part of Horizon 2020 (and will be included in Horizon Europe 2021-2027), created to promote, facilitate, and strengthen innovation within the Union. Knowledge and Innovation Communities of the EIT are partnerships among universities, business hubs (clusters), local authorities, private companies, and research centres, constituting one of the largest networks in the world of specialists and activities aimed at solving societal challenges across all domains. By 2019, 8 such communities had been launched: EIT Climate-KIC, EIT Digital, EIT Food, EIT Health, EIT InnoEnergy, EIT RawMaterials, and the newest – EIT Manufacturing and EIT Urban Mobility. They aim to prepare new generations of entrepreneurs for innovation in their fields, to support, reward, and launch new and innovative products, services, and companies.

For a significant portion of environmental aspects, actions are grouped within the Climate-KIC community, with the declared purpose of supporting the transition to a zero-carbon economy, in four directions with the following objectives (climate-kic.org/who-we-are/making-an-impact):

• Urban Transitions
  1. Promote decentralised energy and retrofitting.
  2. Creation of green, resilient cities.
  3. Accelerate clean urban mobility.
• Sustainable Land Use 4. Towards climate-smart agriculture. 5. Transforming food systems. 6. Protecting forests in integrated landscapes.
• Sustainable Production Systems 7. Reforming materials production. 8. Reducing industrial emissions. 9. Revitalising regional economies.
• Decision Making and Finance 10. Climate businesses on financial markets. 11. Democratizing information about climate risks. 12. Encouraging bankable ecological assets in cities.

Climate-KIC utilises tools such as the launch and implementation of strategies, educational programs (Journey, Catapult, Spark, etc., for students, postgraduates, and specialists, including master’s and doctoral students), online courses, the provision of grants to support objectives with the greatest potential for systemic change and commercial scalability, and the organization of thematic events, among others. Notable among these are:

• The international 24-hour Climathon, held in major cities worldwide and dedicated to innovative solutions to combat climate change, is inspired by IT hackathons.
• The Climate Launchpad competition for eco-business ideas.
• The Greenhouse and Climate Accelerator business-scaling incubators, which, as of 2019, had supported over 2,000 startups in environmental fields, with 20 entrepreneurs featured in Forbes Under 30. Some of the architectural interfaces with ecosystem potential documented for the current research have their origins within the Climate-KIC family.

Make: Innovative Office Furniture from Cardboard Tubes

The \”Make\” project, featured in the 2012 Bucharest Architecture Annual Expo under the Object Design section (DO06), showcases sustainable office furniture crafted from cardboard tubes.anuala+1

Project Creators

Architect Florin Cristache led the design, with co-authors Adrian Ibric and Mircea Mihai from DUO STUDIO SRL. This Bucharest-based team contributed to the annual showcase of Romanian architectural innovations.

Design Concept

The furniture utilizes recycled cardboard tubes for modular office pieces like desks and storage, emphasizing lightweight, eco-friendly construction. It aligns with early 2010s trends in sustainable design, promoting recyclability in everyday workspaces.galateeagallery+1

Context in Bucharest Architecture Annual 2012

Bucharest Architecture Annual highlighted emerging talents across categories, including Object Design like \”Make,\” amid competitions for built projects and interiors. The event celebrated local creativity, with entries evaluated for functionality and innovation.anuala+2

BIX Light and Media Facade\” by realities:united, image/information source: ArchDaily

The BIX facade of Kunsthaus Graz, often called the \”Friendly Alien,\” stands as a pioneering example of architectural-media symbiosis on the building\’s eastern side in Graz, Austria. Spanning 900 square meters, this digital communicative envelope was designed by Berlin-based studio realities:united in close collaboration with architects Sir Peter Cook and Colin Fournier. Completed in 2003 as part of the European Capital of Culture initiative, BIX comprises 1,300 custom-cast translucent Plexiglas panels, each illuminated by fluorescent tubes functioning as low-resolution pixels. With 930 lights arranged in a rhizomatic pattern—evoking underground root systems—the facade displays images, animations, and dynamic content at 18 frames per second, creating a shimmering, interactive surface that blurs the boundaries between interior exhibitions and the public urban realm.

BIX revives Cook\’s original 1960s vision of a \”blob\” architecture with embedded media, transforming the biomorphic steel-and-glass structure into a living canvas. The system\’s software allows remote content management, enabling synchronized displays for events, art projections, or advertisements. Technically, each pixel\’s brightness is modulated via dimmable ballasts, achieving a resolution of about 40×30 pixels—coarse yet hypnotic at night. Sustainability was prioritized by using long-lasting T5 fluorescent tubes (up to 20,000 hours lifespan), avoiding power-hungry LEDs of the era, and integrating the media layer seamlessly into the building\’s envelope without additional structural load.

This \”old tech\” approach underscores BIX\’s ethos: low-cost, durable integration over flashy novelty. Energy consumption hovers at 10-15 kW during full operation, far less than modern video walls, while the rhizomatic layout diffuses light organically, reducing glare. Culturally, BIX has hosted over 1,000 content pieces since inception, from abstract visuals to political statements, fostering Graz\’s creative scene. Challenges included panel weathering (replaced in 2018) and maintenance in Austria\’s climate, yet it remains operational.

In urban planning contexts—like Romania\’s regenerative projects—BIX inspires media facades for public engagement, proving how parametric design and simple tech can yield dynamic, sustainable interfaces. Its legacy influences contemporary works, emphasizing architecture as a communicative medium that adapts to cultural narratives.

The Lily PAX Water Rotor, also known as the Lily Impeller, is a patented biomimetic mixer impeller developed by PAX Scientific (now PAX Water Technologies) for efficient water circulation in storage tanks. Invented by Jay Harman, it mimics natural spiral flow patterns like whirlpools and ocean currents to create powerful vortex mixing with minimal energy use.cleanwater1+3

Design Inspiration

The impeller draws from nature\’s \”Streamlining Principle,\” using computational fluid dynamics to replicate low-drag, centripetal flows observed in seaweed, tornadoes, and water bodies. At just 8 inches (21 cm) tall and shaped like a calla lily with Golden Ratio proportions, it generates ring vortices for persistent, friction-minimal circulation.steemit+3

Key Applications

PAX mixers with the Lily impeller prevent thermal stratification, disinfectant loss, nitrification, and ice damage in potable water tanks. They suit mid-to-large tanks, operate on low power (equivalent to three 100W bulbs for millions of gallons), and install easily via hatch or diver without tank modifications.

Performance Specs

• Circulates entire tank volumes top-to-bottom rapidly.
• Horizontal eductor variants (e.g., Tank Shark) handle shallow tanks or tough conditions with 75-500 GPM flow at 50 PSI motive water.[cleanwater1]​
• Minimum 6 feet water depth recommended for optimal vortex setup.[cleanwater1]​