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What is Bio-mimetics and Bio-mimicry? 

Link to popular website: http://www.asknature.org/

Bio-mimetics refers to human-made processes, substances, devices, products, buildings, or systems that imitate nature. The art and science of designing and building biomimetic apparatus, products,  systems, architecture, et. is called bio-mimetics. Of special interest to researchers is nanotechnology, robotics, artificial intelligence (AI), the medical industry, architecture, every day products, and the military. On this website the focus is on sustainable architecture and sustainable products.


Videoclip below: TED -Michael Pawlyn: Using nature's genius in architecture

Uploaded on Feb 10, 2011

http://www.ted.com How can architects build a new world of sustainable beauty? By learning from nature. At TEDSalon in London, Michael Pawlyn describes three habits of nature that could transform architecture and society: radical resource efficiency, closed loops, and drawing energy from the sun. This clip is a great introduction to bio-mimetics and sustainable architecture and shows some practical application possibilities for architecture in general.


Bio-Inspiration: Nature as muse (BELOW) 

This clip shows how different departments/faculties can work together to solve everyday design problems.

Uploaded on Nov 5, 2008: KQED  

For hundreds of years, scientists have been poaching design ideas from structures in nature. Now, biologists and engineers at UC Berkeley are working together to design a broad range of new products, such as life-saving milli-robots modeled on the way cockroaches run and adhesives based on the amazing design of a geckos foot. QUEST visits their labs to find out what's so special about these crawling and scaling animals.



Read for free (blog post): https://fivehousepublishing.com/modernism-terminology-keywords-and-key-phrases-for-architectural-and-product-design/

Overview:

This resource will assist students, teachers, homeschoolers, artists, designers, sculpturers, and architects to develop their annotation skills by extending their vocabulary and understanding of key design words and phrases.

Firstly, the features of Modernism (or a Modernist style or Design Era) are listed.

Secondly, the most important design keywords (and key phrases) are identified and the meaning are explained in short.

Thirdly, an example of annotations to freehand sketches (DVC NCEA Level 2 – New Zealand Secondary Schools) – an architectural covered (or sheltered) seating structure at a school – are shown (Exemplar NCEA).

Fourthly, more advanced terminology for descriptive annotations for a Modernist-style architectural sketch are included at the end (more challenging).

Fifthly, keywords and key phrases related for sustainable practice in architecture are included (e.g. harvesting energy from the sun, harvesting energy from the wind, collecting water (rain), passive solar design, and biomimetics [miming nature]), are included.

Sixthly, Additional keywords and key phrases related to the IoT (Internet of Things) are included. I look at some examples of how the IoT (Internet of Things) can be applied and integrated into Modernist style buildings (architecture).

Lastly, I look at Māori keywords and phrases related to Modernist Architecture (Māori context – New Zealand).

Don’t miss the AI-generated Modernist style house at the end. You could practice the new keywords and phrases you have learned. Look at the images with a friend; identify and discuss Modernist, sustainable features, passive solar features, IoT functionality, and much more with your friends or colleagues.

IMPORTANT: Please note that the resource progresses to more advanced concepts and keywords towards the end. Simple terminology and basic concepts are introduced at the beginning of this resource.


Excerpt:

Keywords and key phrases related to sustainable practice in architecture (for example Biomimicry).

Modernist architecture often integrates sustainable features to promote environmental responsibility. Here’s a succinct list of sustainable features, with a focus on biomimicry, energy harvesting, and passive solar design principles:

  1. Biomimicry:
    • Annotation: “Biophilic design – Incorporation of natural patterns and forms inspired by ecosystems for enhanced sustainability.” Miming nature – investigate how animals and plants – for example – solve problems. Then, use this new knowledge to improve architectural design. For example, the Jack Rabbit has many surface veins on its ears. In the winter – when it is cold – the rabbit sits in the sun and allows the sum to heat the blood in its ears. Consequently, the heat is transferred to its body, warming the entire rabbit’s body quickly and efficiently.

Biophilic Design is a concept used within the building industry to increase occupant connectivity to the natural environment through direct nature, indirect nature, and space and place conditions.

Explanation: Drawing inspiration from nature to create designs that mimic the efficiency and resilience found in natural systems.

ARCHITECTURAL APPLICATION (BIOMIMICRY – JACK RABBIT EARS/VEINS): Copper tubes (pipes) can be installed into a building’s concrete floors, walls and roofs (like veins). Water – from the solar thermal panel on the roof – can be pumped via an electric pump (powered by photovoltaic panels) through the entire “skin” of the house or building. It means that warm or hot water can heat a building during Winter. By miming the Jack Rabbit, the building could be heated for free, harvesting sun energy and the flow of warm water through the walls, floors, and roof of a modern flat roof building (in situ concrete with copper pipes). Investigate biomimetics and biomimicry in architecture to find more ideas.

2. Renewable Energy Harvesting:

  • Annotation: “Wind Turbines & Solar Panels – Harvesting energy from natural elements to power the building.”
  • Explanation: Integration of wind turbines and solar panels to harness renewable energy, reducing reliance on traditional power sources.

3. Passive Solar Design:

  • Annotation: “Solar orientation – Strategic placement of windows and shading devices for optimal solar heat gain and daylighting.”
  • Explanation: Utilizing the sun’s energy for heating and lighting reduces the need for artificial lighting and heating systems.

4. Natural Ventilation:

  • Annotation: “Cross-ventilation design – Maximizing airflow for natural cooling and improved indoor air quality.”
  • Explanation: Incorporating design elements that facilitate air flow through the building to enhance natural ventilation and reduce reliance on mechanical systems.

5. Green Roofs and Walls:

  • Annotation: “Living roofs & walls – Integration of vegetation on building surfaces for insulation, biodiversity, and improved air quality.”
  • Explanation: Implementing green roofs and walls to enhance insulation, provide habitat for wildlife, and contribute to air purification.

6. Rainwater Harvesting:

  • Annotation: “Rainwater collection – Systems in place to capture and repurpose rainwater for irrigation and non-potable use.”
  • Explanation: Collecting and utilising rainwater for various non-potable purposes, reducing reliance on traditional water sources.

7. Energy-Efficient Lighting:

  • Annotation: “LED & daylighting – Energy-efficient lighting systems combined with ample use of natural light for reduced energy consumption.”
  • Explanation: Implementing LED lighting and maximising natural light to minimise energy use for lighting purposes.

8. Thermal Mass:

  • Annotation: “High thermal mass materials – Using materials with high thermal mass for temperature regulation and reduced energy needs.”
  • Explanation: Incorporating materials that absorb and store heat contributes to stable indoor temperatures and reduced reliance on heating and cooling systems.

9. Recycled and Sustainable Materials:

  • Annotation: “Recycled steel, concrete, and reclaimed wood – Prioritizing materials with lower environmental impact and reducing waste.”
  • Explanation: Choosing building materials that are recycled or sustainably sourced to minimise the ecological footprint of the construction.

10. Smart Building Systems:

  • Annotation: “Smart HVAC & Automation – Utilizing technology for energy-efficient heating, ventilation, air conditioning, and overall building automation.”
  • Explanation: Implementing intelligent systems to optimise energy usage and create a more responsive and efficient building environment.

11. Low-Impact Foundations:

  • Annotation: “Eco-friendly foundations – Minimizing environmental impact during construction through innovative foundation designs.”
  • Explanation: Incorporating foundation systems that reduce disruption to the natural environment during construction.

12. Modular and Prefabricated Construction:

  • Annotation: “Modular construction – Minimising waste and resource consumption through off-site fabrication and assembly.”
  • Explanation: Employing modular and prefabricated construction techniques to reduce on-site waste and enhance efficiency.

These sustainable features showcase how modernist architecture can contribute to environmental conservation and energy efficiency, aligning with contemporary principles of ecological responsibility.

Additional keywords and key phrases related to the IoT (Internet of Things). Here are some examples of how the IoT (Internet of Things) can be applied and integrated into Modernist style buildings (architecture).

The integration of the Internet of Things (IoT) into modernist style buildings enhances functionality, efficiency, and connectivity. Here’s a succinct list of examples illustrating how IoT can be applied and integrated into modernist architecture:

  1. Smart Lighting Systems:
    • Application: IoT-enabled lighting controls with sensors for automated adjustments based on occupancy, daylight levels, and user preferences.
    • Integration: Seamless integration of smart lighting fixtures into the modernist interior, promoting energy efficiency and personalized lighting experiences.
  2. Intelligent HVAC (Acronym = Heating, Ventilation and Air Conditioning.) Systems:
    • Application: IoT-connected heating, ventilation, and air conditioning systems that adapt to user behavior, occupancy patterns, and environmental conditions.
    • Integration: Hidden sensors and smart vents integrated into the modernist design for automated climate control and energy optimization.
  3. Automated Window Blinds:
    • Application: Motorized blinds equipped with IoT sensors for adjusting natural light, temperature, and privacy based on external factors and user preferences.
    • Integration: Integration of discreet motorized blinds seamlessly into the modernist architectural design.
  4. Security and Access Control:
    • Application: Smart security systems with IoT-connected cameras, sensors, and access control devices for monitoring and controlling building access.
    • Integration: Minimalistic, unobtrusive placement of security features that align with the aesthetics of modernist exteriors and interiors.
  5. Energy Monitoring and Management:
    • Application: IoT-enabled energy monitoring devices to track and manage energy consumption, integrating with renewable energy sources.
    • Integration: Concealed placement of energy monitoring devices and displays to maintain the sleek and clean lines of modernist interiors.
  6. Smart Appliances and Furniture:
    • Application: IoT-connected appliances and furniture that can be controlled and monitored through a central system or smartphone app.
    • Integration: Integration of smart appliances and furniture with minimalist designs, ensuring they complement the overall modernist aesthetic.
  7. Building Automation Systems:
    • Application: Comprehensive building automation systems using IoT for centralized control of lighting, HVAC, security, and other systems.
    • Integration: Streamlined control interfaces seamlessly incorporated into the modernist architecture, providing an unobtrusive user experience.
  8. Occupancy and Space Utilization Monitoring:
    • Application: IoT sensors to monitor occupancy and space utilization, optimizing lighting, climate, and resource usage.
    • Integration: Discreet placement of occupancy sensors within the modernist building design, avoiding visual clutter.
  9. Voice and Gesture Control:
    • Application: Integration of IoT for voice or gesture-controlled interfaces to manage various aspects of the building environment.
    • Integration: Effortless incorporation of voice and gesture control mechanisms, preserving the clean and uncluttered look of modernist interiors.
  10. Digital Signage and Information Displays:
    • Application: IoT-connected digital displays for dynamic information, wayfinding, and communication within the building.
    • Integration: Sleek and integrated digital display solutions that enhance communication without disrupting the modernist design.
  11. Water Management Systems:
    • Application: IoT-enabled water monitoring and management systems for efficient water usage and leak detection.
    • Integration: Subtle integration of water sensors and controls into modernist bathrooms and utility spaces.
  12. Waste Management and Recycling:
    • Application: IoT sensors for monitoring waste levels and optimizing recycling processes within the building.
    • Integration: Discreet placement of waste sensors and recycling stations that blend seamlessly with modernist interiors.

The key is to ensure that IoT applications are seamlessly integrated into the modernist architecture, maintaining the style’s emphasis on simplicity, functionality, and aesthetic appeal.

Māori keywords and phrases related to Modernist Architecture (Māori context – New Zealand)

Māori culture has a rich heritage with strong connections to the land, community, and spirituality. Several concepts and ideas can be explored when considering modernism and architecture within a Māori context. While modernist architecture is often associated with Western principles, there are ways to integrate Māori cultural elements into contemporary designs. Here are some Māori concepts and ideas related to modernism and architecture:

  • Whakapapa (Genealogy and Ancestry):
    • Integration: Incorporate design elements that reflect the ancestral lineage and connections to the land. Use materials, patterns, or motifs that hold historical significance for the Māori community.
  • Whenua (Land):
    • Integration: Design structures that respect and harmonise with the natural environment. Utilise sustainable and local materials, and consider the building’s relationship with the landscape.
  • Whanaungatanga (Relationships):
    • Integration: Create communal spaces that foster connections and relationships. Design shared areas that encourage social interaction and community engagement, reflecting the importance of relationships in Māori culture.
  • Kaitiakitanga (Guardianship and Stewardship):
    • Integration: Integrate sustainable and environmentally conscious design principles. Utilise energy-efficient technologies, green building materials, and practices that align with Māori guardianship values over the environment.
  • Manaakitanga (Hospitality and Generosity):
    • Integration: Design spaces that welcome and embrace visitors. Incorporate cultural symbols or traditional art forms in the architecture to express a sense of hospitality and generosity.
  • Wharenui (Meeting House) Influence:
    • Integration: Draw inspiration from the traditional Wharenui design elements, such as the intricately carved façades (whakairo) and meeting spaces. Adapt these elements into the modernist architectural context, perhaps as symbolic features or artistic expressions.
  • Koru (Unfurling Fern Frond):
    • Integration: Use the Koru motif, symbolising growth, renewal, and the interconnectedness of life, as a design element. Incorporate it into patterns, shapes, or even structural elements within modernist architecture.
  • Mauri (Life Force):
    • Integration: Consider the concept of Mauri in the design process, emphasising a space’s life force and essence. Create environments that promote well-being and harmony, aligning with Māori spiritual beliefs.
  • Tukutuku Panels and Weaving Patterns:
    • Integration: Incorporate traditional weaving patterns and Tukutuku panels into architectural elements like screens, partitions, or decorative features, adding cultural depth to the modernist design.
  • Poupou (Carved Wooden Posts):
    • Integration: Adapt the concept of Poupou by incorporating carved wooden elements into the architecture. These can serve aesthetic and symbolic purposes, connecting the contemporary structure with traditional Māori art forms.
  • Te Ao Māori (The Māori Worldview):
    • Integration: Understand and respect the Te Ao Māori worldview. Consider how the design aligns with Māori values, spirituality, and holistic perspectives on well-being.
  • Te Reo Māori (Māori Language):
    • Integration: Integrate Te Reo Māori through signage, artwork, or architectural elements that celebrate the language and contribute to cultural revitalisation.

When blending Māori concepts with modernist architecture, it’s essential to approach the integration with respect, consultation, and collaboration with the Māori community to ensure authenticity and cultural sensitivity. This fusion can result in buildings that not only embody modernist principles but also celebrate and honour Māori heritage.

Go to the blog post find much more on the topic! Lots of rich and layered content on the blog post! 

Read for free (blog post): https://fivehousepublishing.com/modernism-terminology-keywords-and-key-phrases-for-architectural-and-product-design/