This document discusses innovative materials and processes for furniture design and production. It covers several topics:
1. Nanotechnology and how depositing thin layers of atoms and structures at the nanoscale can functionalize surfaces to provide properties like self-cleaning, odor absorption, and antimicrobial effects.
2. Alternative wood finishing techniques like natural waxes and oils that allow a more direct interaction with raw wood without polymer coatings.
3. Composite materials for furniture frames like plywood, fiberglass, and advanced composites using carbon fiber that offer high strength and stiffness with opportunities for innovative design.
4. A brainstorming section examines strengths, weaknesses and opportunities for applying these new materials in a local cluster
Ecodesign and the use of sustainable materials is important for designers to consider. Designers have tools to design for recyclability, closed-loop systems, and to avoid toxic materials. They can also ensure durability and use materials intelligently. Sugru is a silicone material that allows users to repair items instead of replacing them. It bonds well and is flexible, waterproof, and heat resistant. Treeplast is a biocomposite made of wood chips, corn, and resin as a natural alternative to plastics. It can be injection molded but takes longer to cool and needs lacquer finish for water resistance.
This document contains information from Hazel White's HCI 3 class on January 24, 2011. It summarizes several design models and methods, including action research, Sun Sigma framework, Nigel Cross' four stage design process, Vijay Kumar's innovation planning model, and RIP + MIX. RIP + MIX is introduced as a design method for idea generation that involves "ripping" attributes from one artifact and "mixing" them with attributes of another artifact to generate new product or service ideas. The document provides examples of applying RIP + MIX and assigns students to choose two artifacts, describe their attributes, and use RIP + MIX to create a new artifact.
Conferencia Magistral al VI Congreso Internacional "Sobre desarrollo de infrastructura fisica educativa", San Luis Potosi', Mexico 17 - 19 octubre 2007
This document discusses using drama methods such as bodystorming, storyboarding, and playback theatre in service concept design. Bodystorming involves acting out service scenarios to prototype and test interactions. Storyboarding uses lego figures to simulate a service. Playback theatre has customers share stories which actors then portray to provide different perspectives. Drama workshops also collect customer stories through embodied exercises and reflections to generate insights. These methods allow prototyping services in context through experiential activities rather than traditional brainstorming.
This document summarizes the evaluation of a service concept for a mobile dental clinic called Suupirssi. Prototypes of the dental clinic interior were tested with dental professionals to refine the design. A full-scale mockup of the clinic interior installed in a van allowed professionals to experience and provide feedback on the layout, equipment placement, and nursing workflows. The tests helped finalize the design before outfitting the actual van and ensured the design met needs for patient and staff ergonomics, sanitation, and storage of dental equipment and supplies.
This document contains information about design concepts presented by Satu Miettinen and colleagues from Kuopio Academy of Design in Finland. It discusses what a design concept is, how it can be verbal or visual, and provides guidance on developing a design concept including defining the problem, researching the client and industry, and asking questions to understand brand, customers, and goals. The document stresses listening to clients' descriptive words to form the verbal concept and researching competitors to identify consistent and unique aspects of the client's market.
1. The document discusses how cultural heritage, including traditions and intangible cultural phenomena, can be used for brand identity, product identity, and product development in the furniture industry.
2. It provides examples of brands like Novo, Bourgie, and Creazioni that draw inspiration from local Italian traditions and cultural heritage for their branding, product designs, and development.
3. The case study of the design collective Samare is presented, which takes its name and designs inspiration from Canadian cultural elements and traditions in order to both create contemporary furniture and preserve endangered traditions.
This document discusses various methods for prototyping, including:
- Low and high fidelity prototyping using sketches, paper prototypes, mockups, and storyboards.
- Experience prototyping to test feasibility, logistics, and customer experience of a service.
- Virtual prototyping to test usability based on a virtual model instead of a real prototype.
- Rapid prototyping to develop concepts through software or hardware prototypes to clarify requirements.
The document provides examples of different prototyping methods and emphasizes the value of prototyping for collecting early feedback to refine designs in an iterative process.
Ecodesign and the use of sustainable materials is important for designers to consider. Designers have tools to design for recyclability, closed-loop systems, and to avoid toxic materials. They can also ensure durability and use materials intelligently. Sugru is a silicone material that allows users to repair items instead of replacing them. It bonds well and is flexible, waterproof, and heat resistant. Treeplast is a biocomposite made of wood chips, corn, and resin as a natural alternative to plastics. It can be injection molded but takes longer to cool and needs lacquer finish for water resistance.
This document contains information from Hazel White's HCI 3 class on January 24, 2011. It summarizes several design models and methods, including action research, Sun Sigma framework, Nigel Cross' four stage design process, Vijay Kumar's innovation planning model, and RIP + MIX. RIP + MIX is introduced as a design method for idea generation that involves "ripping" attributes from one artifact and "mixing" them with attributes of another artifact to generate new product or service ideas. The document provides examples of applying RIP + MIX and assigns students to choose two artifacts, describe their attributes, and use RIP + MIX to create a new artifact.
Conferencia Magistral al VI Congreso Internacional "Sobre desarrollo de infrastructura fisica educativa", San Luis Potosi', Mexico 17 - 19 octubre 2007
This document discusses using drama methods such as bodystorming, storyboarding, and playback theatre in service concept design. Bodystorming involves acting out service scenarios to prototype and test interactions. Storyboarding uses lego figures to simulate a service. Playback theatre has customers share stories which actors then portray to provide different perspectives. Drama workshops also collect customer stories through embodied exercises and reflections to generate insights. These methods allow prototyping services in context through experiential activities rather than traditional brainstorming.
This document summarizes the evaluation of a service concept for a mobile dental clinic called Suupirssi. Prototypes of the dental clinic interior were tested with dental professionals to refine the design. A full-scale mockup of the clinic interior installed in a van allowed professionals to experience and provide feedback on the layout, equipment placement, and nursing workflows. The tests helped finalize the design before outfitting the actual van and ensured the design met needs for patient and staff ergonomics, sanitation, and storage of dental equipment and supplies.
This document contains information about design concepts presented by Satu Miettinen and colleagues from Kuopio Academy of Design in Finland. It discusses what a design concept is, how it can be verbal or visual, and provides guidance on developing a design concept including defining the problem, researching the client and industry, and asking questions to understand brand, customers, and goals. The document stresses listening to clients' descriptive words to form the verbal concept and researching competitors to identify consistent and unique aspects of the client's market.
1. The document discusses how cultural heritage, including traditions and intangible cultural phenomena, can be used for brand identity, product identity, and product development in the furniture industry.
2. It provides examples of brands like Novo, Bourgie, and Creazioni that draw inspiration from local Italian traditions and cultural heritage for their branding, product designs, and development.
3. The case study of the design collective Samare is presented, which takes its name and designs inspiration from Canadian cultural elements and traditions in order to both create contemporary furniture and preserve endangered traditions.
This document discusses various methods for prototyping, including:
- Low and high fidelity prototyping using sketches, paper prototypes, mockups, and storyboards.
- Experience prototyping to test feasibility, logistics, and customer experience of a service.
- Virtual prototyping to test usability based on a virtual model instead of a real prototype.
- Rapid prototyping to develop concepts through software or hardware prototypes to clarify requirements.
The document provides examples of different prototyping methods and emphasizes the value of prototyping for collecting early feedback to refine designs in an iterative process.
The document discusses nanotechnology and provides definitions and examples of nanotechnology applications. It begins by defining nanotechnology as the manipulation of matter at the nanoscale, typically 1 to 100 nanometers. It then provides examples of current nanotechnology products in various industries like electronics, materials, sports, and clothing that are lighter, stronger, and more functional than traditional materials. These applications demonstrate how nanotechnology is already impacting many areas of society.
Nanotechnology by manish myst, ssgbcoetManish Myst
This document provides an overview of nanotechnology, including what it is, its unifying themes, main approaches, and potential applications across diverse fields like medicine, communications, computing, and energy. Specifically, it defines nanotechnology as the production and manipulation of materials at the nanoscale (100 nanometers or less). It discusses how characterizing tools, nanoscale science, and molecular computations are common themes. The main approaches are bottom-up (building from molecular components) and top-down (constructing nano-objects from larger entities). Some early applications include sunscreens using titanium dioxide nanoparticles and stain-resistant clothing with nanolayers.
This document discusses green nanotechnology and its applications in automobiles. It begins with an introduction to green engineering and nanotechnology, explaining their principles and potential benefits. It then discusses how marrying nanotechnology with green engineering principles can help develop clean nanotechnologies from the start and use nanotechnology to boost performance of green technologies. Some potential automotive applications of nanotechnology mentioned include improved materials, coatings, cooling fluids, batteries, sensors, and more efficient vehicles. The document also discusses the role of mechanical engineering in nanotechnology development and challenges around systems integration and manufacturing at the nanoscale. In closing, it discusses using nanofluids to improve thermal management for vehicles.
Nanotechnology involves studying and manipulating matter at the nanoscale, between 1-100 nanometers. At this scale, materials exhibit different physical and chemical properties than at larger scales due to factors like high density and changes in how properties scale with dimension. Researchers are working to develop new materials and technologies by controlling composition, size, and shape at the nanoscale. Some potential applications of nanotechnology include stain-resistant clothing, self-cleaning paint, more efficient solar cells, smaller computing devices, earlier disease detection, and nerve tissue interfacing with computers. Cancer therapies also utilize nanoparticles for localized heating or drug delivery to tumors.
This document discusses how combining materials engineering and textile design can transform many aspects of life. Recent innovations in materials science have expanded textile applications and moved textiles from being passive to active and interactive. New developments in smart materials like conductive polymers promise to enable smart textiles that can sense and respond to electrical, optical, or biological stimuli. This would allow textiles to incorporate functions like biomedical monitoring, therapeutics delivery, or security features. Fully realizing this potential requires engineers and designers to work together from the beginning to develop user-focused smart materials and textile applications.
Smart fabrics are fabrics that have been engineered to have enhanced functional properties through various technologies. Nanotechnology, thermochromics, conductivity, and shape memory polymers are some of the techniques used to develop smart textiles. Examples include fabrics treated with silver nanoparticles for antibacterial properties, thermochromic wallpaper that changes color with temperature, and light-sensitive curtains that open and close in response to light intensity without electricity. These smart fabrics have applications in interior design, architecture, healthcare and other fields.
Nanotechnology refers to controlling and manipulating matter at the atomic and molecular scale, generally 100 nanometers or smaller. It has the potential to create new materials and devices with applications in medicine, electronics, and energy. While nanotechnology is still emerging, some current products that incorporate nanotechnology include sunscreens, self-cleaning glass, stain-resistant clothing, scratch-resistant coatings, and swimming pool cleaners. Scientists are interested in nanowires and carbon nanotubes, which could be used to build tiny transistors or strong, lightweight materials.
Green nanotechnology aims to develop clean nanotechnologies that minimize environmental and human health risks. It focuses on designing environmentally benign nanoparticles and green methods for large-scale production. The goals are to test nanoparticles for toxicity and redesign as needed, develop single-solvent phase production methods that control particle size and properties, and discover efficient approaches to integrate nanoparticles into novel devices. A marriage of nanotechnology and green engineering could make new nanotechnologies clean from the start and allow green technologies to use nanotechnology to boost performance in a more sustainable way.
For many decades, nanotechnology has been developed with cooperation from researchers in several fields of studies including physics, chemistry, biology, material science, engineering, and computer science. Nanotechnology is engineering at the molecular (groups of atoms) level. It is the collective term for a range of technologies, techniques and processes that involve the manipulation of matter at the smallest scale (from 1 to 100 nm2).The nanotechnology provides better future for human life in various fields. In future nanotechnology provides economy, ecofriendly and efficient technology which removes all difficult predicaments which is faced by us in today life scenario. Nanotechnology is the technology of preference to make things small, light and cheap, nanotechnology based manufacturing is a method conceived for processing and rearranging of atoms to fabricate custom products.
The nanotechnology applications have three different categories nanosystems, nanomaterials and nanoelectronics. The impact of the nanotechnology occurred on computing and data storage, materials and manufacturing, health and medicine, energy and environment, transportation, national security and space exploration. There are many applications of nanotechnology which are exciting in our life such as nanopowder, nanotubes, membrane filter, quantum computers etc.
But there are several problems which are occurred with the exploration of the nanotechnology such as the wastes released while making the materials for nanotechnology are released into the atmosphere and can even penetrate human and animal cells and effect their performance, agricultural countries will lose their income as nanotechnology will take over, if any damage is done at the molecular level then it is not possible to revert it.
Nanotechnology refers to controlling and manipulating matter at the atomic and molecular scale, generally 100 nanometers or smaller. It has the potential to create new materials and devices with applications in medicine, electronics, and energy. While the concept was first introduced in 1959, scientific research has expanded greatly in recent decades. There are two main approaches - building from the bottom up using molecular components, or constructing from larger entities without atomic control. Many existing products already use nanotechnology, including sunscreens, self-cleaning glass, clothing, and swimming pool cleaners. Nanowires and carbon nanotubes show particular promise for electronics and other applications due to their extraordinary properties compared to existing materials.
This document provides a seminar report on nanotechnology submitted by Sanchit Sharma for their B.Tech degree. The report acknowledges those who provided guidance, including their lecturer Mrs. Shabnam Khan. It then provides an abstract that discusses nanotechnology engineering at the molecular level between 1-100 nm, and how it provides applications across fields like computing, materials, health, energy and more. However, it also notes challenges like waste and potential health effects. The full report then discusses the history, concepts, tools, future applications and exciting current uses of nanotechnology.
Terra Mar Architectural - These 8 Innovative Materials Will Revolutionize the...terramararchitectural
These materials include translucent wood, cement that generates light, floating piers, Martian concrete, lightweight seismic reinforcement, self-cooling walls, biodegradable furniture, pollution-absorbing bricks, and self-healing concrete. Scientists and engineers have developed these innovative materials to revolutionize the construction industry by enabling new architectural designs, improving sustainability, and reducing maintenance needs.
About design (and disruptive technologies) Teemu Leinonen
This document discusses design and disruptive technologies from the perspective of Teemu Leinonen, an Associate Professor of New Media Design and Learning. It outlines Leinonen's background and areas of expertise, which include education theory, new media, design, and design methods. The document then covers two main topics: 1) technology and media, discussing how new technologies are experienced over time from experimental art to domestication, and providing examples. 2) design as research, outlining Leinonen's research-based design process which takes a user-centered approach through methods like contextual inquiry, participatory design, and prototyping to create products and services that meet real human needs.
This document provides an overview of nanotechnology, including its definition, history, current applications, and future potential. It defines nanotechnology as the manipulation of matter at the nanoscale (1 billionth of a meter) to create new materials and devices. Some key points:
1) Nanotechnology is inspired by structures found in nature and was pioneered in the 1950s. Current applications include graphene for electronics, organic solar cells, printed electronic displays, and molecular robots for medical applications.
2) Future applications could include ultra-strong lightweight materials for construction, self-cleaning adaptive buildings, highly efficient solar energy, early disease detection chips, artificial organs produced with nanomedicine, and technologies to reverse climate change
The document provides an introduction to nanotechnology, including its origins, definition, and applications. It discusses how nanotechnology involves manipulating matter at the atomic scale of 1 to 100 nanometers. Richard Feynman first conceived the idea of molecular manufacturing in 1959. The document defines nanotechnology and nanomaterials. It outlines various products that incorporate nanotechnology in sectors like electronics, energy, materials, and more. Applications include nano transistors, batteries, solar cells, and carbon nanotubes. The document also discusses advantages and potential disadvantages of nanotechnology, as well as its future implications on industries and society.
Application of nano-technology in constructionAmeer Muhammed
This document discusses the application of nanotechnology in construction. It begins by defining nanotechnology as the study and manipulation of matter at the nanoscale. It then outlines several nanomaterials that are being used in construction, such as carbon nanotubes, titanium dioxide, zinc oxide, and tungsten oxide. These nanomaterials can improve properties like strength, conductivity, and self-cleaning abilities when added to materials like concrete, steel, wood, glass, and coatings. The document also discusses potential barriers to nanotechnology like health effects, environmental impacts, and cost, but concludes that with further research, nanotechnology could allow for more durable and economical infrastructure.
The document discusses electronic and technical textiles, specifically smart-functional textiles and their relevance for the construction industry. It provides an overview of Saxion University, including its research centers, chairs, and applied research in areas like healthcare, sustainability, and mobility. It also describes different types of technical textiles like buildtech for construction applications, and categories of smart-intelligent textiles, from conventional to passive to active electronic varieties. Enabling technologies for smart textiles like inkjet printing and nanotechnology are also mentioned.
Nanotechnology involves manipulating matter at the nanoscale, usually from 1 to 100 nanometers. It can be used to create new materials with unique properties by altering the arrangement of atoms. While nanotechnology holds promise for applications in medicine, energy, and consumer goods, it also poses risks such as toxicity of nanoparticles and potential for misuse of self-replicating nanobots. Both benefits and risks of nanotechnology need to be considered as its applications continue to develop and spread into various areas of life over the coming decades.
Nanotechnologies: Benefits and risks for developed and developing countriesNANOYOU
With this presentation developed within the NANOYOU project you will learn about the ethical, legal and social aspects of nanotechnologies, with a special emphasis on the benefits and risks for the developed and developing countries.
For more materials on nanotechnologies visit: www.nanoyou.eu
Translations to several languages are also availabe in the NANOYOU website.
The document discusses the current state of the nanotechnology industry and governance, noting that while investment has exceeded $50 billion globally, regulation remains insufficient as definitions, standards, and safety oversight are still lacking despite nanomaterials being present in thousands of consumer products. It also analyzes trends in the key countries and actors involved, and argues that governments and industry have invested too much to abandon hopes that nanotechnology will become a strategic platform for global industry leadership.
This document is a project proposal from the Kuopio Academy of Design in Finland for funding from the European Commission. It proposes training and collaboration between design schools and small-to-medium enterprises to develop intelligent, environmentally friendly furniture using new materials. If funded, it would bring together designers, engineers and businesses to co-produce new furniture solutions through workshops, pilot projects and networking events. The goal is to help SMEs integrate design, technology and sustainability for economic and environmental benefits.
This document summarizes the WoodKOKO house concept designed by Hannu Tikka and Tapio Anttila. The KOKO house is an innovative prefabricated wooden house that brings new solutions for modern living. It is based on the traditional "veteran house" design but with a more open layout. Key features include modifiability, ecological materials and energy efficiency, privacy on small lots, and customizable furnishing packages. The houses come in different sizes and layouts to suit different needs over a family's life cycle.
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Similar to Tp3 Image, Branding and Cultural Heritage part2
The document discusses nanotechnology and provides definitions and examples of nanotechnology applications. It begins by defining nanotechnology as the manipulation of matter at the nanoscale, typically 1 to 100 nanometers. It then provides examples of current nanotechnology products in various industries like electronics, materials, sports, and clothing that are lighter, stronger, and more functional than traditional materials. These applications demonstrate how nanotechnology is already impacting many areas of society.
Nanotechnology by manish myst, ssgbcoetManish Myst
This document provides an overview of nanotechnology, including what it is, its unifying themes, main approaches, and potential applications across diverse fields like medicine, communications, computing, and energy. Specifically, it defines nanotechnology as the production and manipulation of materials at the nanoscale (100 nanometers or less). It discusses how characterizing tools, nanoscale science, and molecular computations are common themes. The main approaches are bottom-up (building from molecular components) and top-down (constructing nano-objects from larger entities). Some early applications include sunscreens using titanium dioxide nanoparticles and stain-resistant clothing with nanolayers.
This document discusses green nanotechnology and its applications in automobiles. It begins with an introduction to green engineering and nanotechnology, explaining their principles and potential benefits. It then discusses how marrying nanotechnology with green engineering principles can help develop clean nanotechnologies from the start and use nanotechnology to boost performance of green technologies. Some potential automotive applications of nanotechnology mentioned include improved materials, coatings, cooling fluids, batteries, sensors, and more efficient vehicles. The document also discusses the role of mechanical engineering in nanotechnology development and challenges around systems integration and manufacturing at the nanoscale. In closing, it discusses using nanofluids to improve thermal management for vehicles.
Nanotechnology involves studying and manipulating matter at the nanoscale, between 1-100 nanometers. At this scale, materials exhibit different physical and chemical properties than at larger scales due to factors like high density and changes in how properties scale with dimension. Researchers are working to develop new materials and technologies by controlling composition, size, and shape at the nanoscale. Some potential applications of nanotechnology include stain-resistant clothing, self-cleaning paint, more efficient solar cells, smaller computing devices, earlier disease detection, and nerve tissue interfacing with computers. Cancer therapies also utilize nanoparticles for localized heating or drug delivery to tumors.
This document discusses how combining materials engineering and textile design can transform many aspects of life. Recent innovations in materials science have expanded textile applications and moved textiles from being passive to active and interactive. New developments in smart materials like conductive polymers promise to enable smart textiles that can sense and respond to electrical, optical, or biological stimuli. This would allow textiles to incorporate functions like biomedical monitoring, therapeutics delivery, or security features. Fully realizing this potential requires engineers and designers to work together from the beginning to develop user-focused smart materials and textile applications.
Smart fabrics are fabrics that have been engineered to have enhanced functional properties through various technologies. Nanotechnology, thermochromics, conductivity, and shape memory polymers are some of the techniques used to develop smart textiles. Examples include fabrics treated with silver nanoparticles for antibacterial properties, thermochromic wallpaper that changes color with temperature, and light-sensitive curtains that open and close in response to light intensity without electricity. These smart fabrics have applications in interior design, architecture, healthcare and other fields.
Nanotechnology refers to controlling and manipulating matter at the atomic and molecular scale, generally 100 nanometers or smaller. It has the potential to create new materials and devices with applications in medicine, electronics, and energy. While nanotechnology is still emerging, some current products that incorporate nanotechnology include sunscreens, self-cleaning glass, stain-resistant clothing, scratch-resistant coatings, and swimming pool cleaners. Scientists are interested in nanowires and carbon nanotubes, which could be used to build tiny transistors or strong, lightweight materials.
Green nanotechnology aims to develop clean nanotechnologies that minimize environmental and human health risks. It focuses on designing environmentally benign nanoparticles and green methods for large-scale production. The goals are to test nanoparticles for toxicity and redesign as needed, develop single-solvent phase production methods that control particle size and properties, and discover efficient approaches to integrate nanoparticles into novel devices. A marriage of nanotechnology and green engineering could make new nanotechnologies clean from the start and allow green technologies to use nanotechnology to boost performance in a more sustainable way.
For many decades, nanotechnology has been developed with cooperation from researchers in several fields of studies including physics, chemistry, biology, material science, engineering, and computer science. Nanotechnology is engineering at the molecular (groups of atoms) level. It is the collective term for a range of technologies, techniques and processes that involve the manipulation of matter at the smallest scale (from 1 to 100 nm2).The nanotechnology provides better future for human life in various fields. In future nanotechnology provides economy, ecofriendly and efficient technology which removes all difficult predicaments which is faced by us in today life scenario. Nanotechnology is the technology of preference to make things small, light and cheap, nanotechnology based manufacturing is a method conceived for processing and rearranging of atoms to fabricate custom products.
The nanotechnology applications have three different categories nanosystems, nanomaterials and nanoelectronics. The impact of the nanotechnology occurred on computing and data storage, materials and manufacturing, health and medicine, energy and environment, transportation, national security and space exploration. There are many applications of nanotechnology which are exciting in our life such as nanopowder, nanotubes, membrane filter, quantum computers etc.
But there are several problems which are occurred with the exploration of the nanotechnology such as the wastes released while making the materials for nanotechnology are released into the atmosphere and can even penetrate human and animal cells and effect their performance, agricultural countries will lose their income as nanotechnology will take over, if any damage is done at the molecular level then it is not possible to revert it.
Nanotechnology refers to controlling and manipulating matter at the atomic and molecular scale, generally 100 nanometers or smaller. It has the potential to create new materials and devices with applications in medicine, electronics, and energy. While the concept was first introduced in 1959, scientific research has expanded greatly in recent decades. There are two main approaches - building from the bottom up using molecular components, or constructing from larger entities without atomic control. Many existing products already use nanotechnology, including sunscreens, self-cleaning glass, clothing, and swimming pool cleaners. Nanowires and carbon nanotubes show particular promise for electronics and other applications due to their extraordinary properties compared to existing materials.
This document provides a seminar report on nanotechnology submitted by Sanchit Sharma for their B.Tech degree. The report acknowledges those who provided guidance, including their lecturer Mrs. Shabnam Khan. It then provides an abstract that discusses nanotechnology engineering at the molecular level between 1-100 nm, and how it provides applications across fields like computing, materials, health, energy and more. However, it also notes challenges like waste and potential health effects. The full report then discusses the history, concepts, tools, future applications and exciting current uses of nanotechnology.
Terra Mar Architectural - These 8 Innovative Materials Will Revolutionize the...terramararchitectural
These materials include translucent wood, cement that generates light, floating piers, Martian concrete, lightweight seismic reinforcement, self-cooling walls, biodegradable furniture, pollution-absorbing bricks, and self-healing concrete. Scientists and engineers have developed these innovative materials to revolutionize the construction industry by enabling new architectural designs, improving sustainability, and reducing maintenance needs.
About design (and disruptive technologies) Teemu Leinonen
This document discusses design and disruptive technologies from the perspective of Teemu Leinonen, an Associate Professor of New Media Design and Learning. It outlines Leinonen's background and areas of expertise, which include education theory, new media, design, and design methods. The document then covers two main topics: 1) technology and media, discussing how new technologies are experienced over time from experimental art to domestication, and providing examples. 2) design as research, outlining Leinonen's research-based design process which takes a user-centered approach through methods like contextual inquiry, participatory design, and prototyping to create products and services that meet real human needs.
This document provides an overview of nanotechnology, including its definition, history, current applications, and future potential. It defines nanotechnology as the manipulation of matter at the nanoscale (1 billionth of a meter) to create new materials and devices. Some key points:
1) Nanotechnology is inspired by structures found in nature and was pioneered in the 1950s. Current applications include graphene for electronics, organic solar cells, printed electronic displays, and molecular robots for medical applications.
2) Future applications could include ultra-strong lightweight materials for construction, self-cleaning adaptive buildings, highly efficient solar energy, early disease detection chips, artificial organs produced with nanomedicine, and technologies to reverse climate change
The document provides an introduction to nanotechnology, including its origins, definition, and applications. It discusses how nanotechnology involves manipulating matter at the atomic scale of 1 to 100 nanometers. Richard Feynman first conceived the idea of molecular manufacturing in 1959. The document defines nanotechnology and nanomaterials. It outlines various products that incorporate nanotechnology in sectors like electronics, energy, materials, and more. Applications include nano transistors, batteries, solar cells, and carbon nanotubes. The document also discusses advantages and potential disadvantages of nanotechnology, as well as its future implications on industries and society.
Application of nano-technology in constructionAmeer Muhammed
This document discusses the application of nanotechnology in construction. It begins by defining nanotechnology as the study and manipulation of matter at the nanoscale. It then outlines several nanomaterials that are being used in construction, such as carbon nanotubes, titanium dioxide, zinc oxide, and tungsten oxide. These nanomaterials can improve properties like strength, conductivity, and self-cleaning abilities when added to materials like concrete, steel, wood, glass, and coatings. The document also discusses potential barriers to nanotechnology like health effects, environmental impacts, and cost, but concludes that with further research, nanotechnology could allow for more durable and economical infrastructure.
The document discusses electronic and technical textiles, specifically smart-functional textiles and their relevance for the construction industry. It provides an overview of Saxion University, including its research centers, chairs, and applied research in areas like healthcare, sustainability, and mobility. It also describes different types of technical textiles like buildtech for construction applications, and categories of smart-intelligent textiles, from conventional to passive to active electronic varieties. Enabling technologies for smart textiles like inkjet printing and nanotechnology are also mentioned.
Nanotechnology involves manipulating matter at the nanoscale, usually from 1 to 100 nanometers. It can be used to create new materials with unique properties by altering the arrangement of atoms. While nanotechnology holds promise for applications in medicine, energy, and consumer goods, it also poses risks such as toxicity of nanoparticles and potential for misuse of self-replicating nanobots. Both benefits and risks of nanotechnology need to be considered as its applications continue to develop and spread into various areas of life over the coming decades.
Nanotechnologies: Benefits and risks for developed and developing countriesNANOYOU
With this presentation developed within the NANOYOU project you will learn about the ethical, legal and social aspects of nanotechnologies, with a special emphasis on the benefits and risks for the developed and developing countries.
For more materials on nanotechnologies visit: www.nanoyou.eu
Translations to several languages are also availabe in the NANOYOU website.
The document discusses the current state of the nanotechnology industry and governance, noting that while investment has exceeded $50 billion globally, regulation remains insufficient as definitions, standards, and safety oversight are still lacking despite nanomaterials being present in thousands of consumer products. It also analyzes trends in the key countries and actors involved, and argues that governments and industry have invested too much to abandon hopes that nanotechnology will become a strategic platform for global industry leadership.
Similar to Tp3 Image, Branding and Cultural Heritage part2 (20)
This document is a project proposal from the Kuopio Academy of Design in Finland for funding from the European Commission. It proposes training and collaboration between design schools and small-to-medium enterprises to develop intelligent, environmentally friendly furniture using new materials. If funded, it would bring together designers, engineers and businesses to co-produce new furniture solutions through workshops, pilot projects and networking events. The goal is to help SMEs integrate design, technology and sustainability for economic and environmental benefits.
This document summarizes the WoodKOKO house concept designed by Hannu Tikka and Tapio Anttila. The KOKO house is an innovative prefabricated wooden house that brings new solutions for modern living. It is based on the traditional "veteran house" design but with a more open layout. Key features include modifiability, ecological materials and energy efficiency, privacy on small lots, and customizable furnishing packages. The houses come in different sizes and layouts to suit different needs over a family's life cycle.
1) The document describes a hotel concept service that was created by designers in Finland to provide small and medium hotels with ready-designed room options using Finnish-made, eco-friendly materials.
2) The concept was tested in 5 rooms at the Next Hotel Salpaus in Finland, which received positive customer feedback, and may be expanded further as the hotel was acquired by Scandic Hotels.
3) The hotel concept aims to save hotels time and costs while giving them a high-quality design featuring local materials and partners, allowing the hotels to benefit from marketing Finnish design.
This document describes the "Suupirssi" project which aims to improve access to oral healthcare for people in rural areas through the use of a mobile oral care unit. The project is a collaboration between universities, companies, and healthcare organizations. It involves understanding user needs through research, designing the concept for a mobile unit, and testing the design. The design process is user-centered and iterative, involving prototyping, testing, and feedback from experts and patients. The goal is to develop an accessible, customer-oriented mobile dental clinic that can be easily used by elderly and disabled patients in remote locations.
This document provides information about a training project called "DE-SME - Intelligent Furniture - Training for Design, Environment and New Materials in SMEs". It lists the contact information for several individuals involved from the Kuopio Academy of Design in Finland. It then outlines several topics to be covered in the training, including an introduction to user centered design and examples using a case study of a company called "Suupirssi".
The document provides information about a project called "DE-SME - Intelligent Furniture - Training for Design, Environment and New Materials in SMEs". It lists the project partners including Satu Miettinen, Juha Miettinen, Antti Kares, Raisa Leinonen and Timo Sirviö from the Kuopio Academy of Design in Finland. It also provides the project agreement number.
1) The document is a presentation from Satu Miettinen of Kuopio Academy of Design in Finland about tools for co-creation and user-centered design.
2) It discusses methods like human-centered design, design thinking, experience prototyping that involve users in the design process to develop services that meet user needs and business goals.
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2. Intelligent Furniture
Project
Image, Branding and Cultural Heritage
Module 2 Innovative materials and processes
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3. Introduction
For a long time Furniture has been a very traditional sector as for
material choices: wood have been almost the unique material for
centuries, apart form some glass, iron hardware and fabric
complements.
Starting from 1950’s plastic materials have progressively come into
use:
high density laminates, initially for wood imitation or liquid
resistance improvement
transparent plastics (e.g. PMMA) for glass replacement (with safety
improvement)
coloured plastics to give a “happier” style, e.g. for kids’ room
furniture
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4. Introduction
In upholstered furniture, fabrics and leather coverings have shared
the market, with some “mix” solution of coated fibres to imitate
leather but granting lower costs and easier maintenance.
Upholstery have progressively found great improvement form the
development of high performance Polyurethane foams, with easier
and more efficient production of long-lasting furniture (apart from
environmental aspects…) is compared to more traditional fillings
(normally of vegetable origin).
Frames have more and more often shifted from wood to wood-
derived materials in the hidden or painted parts (essentially for cost
reduction), with some exceptions of metal and plastic components for
style choice.
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5. Material evolutions and relevant opportunities
Last years (especially since middle of 1990’s) have been very prolific
for material science also at industrial level, following huge
investments for defence and aerospace since 1945 to 1990), and
materials with very special features, just unbelievable some decades
ago, are now available to consumer industries (including furniture) at
affordable prices.
The evolution have not stopped; on the contrary, the gradual opening
of wider markets is continuously stimulating the development of
products and materials addressed to “common” industry (i.e. not
defence, not space, not Formula 1!).
The purpose of this Training Package is to discuss the various
solicitations coming from this innovation effort in order to evaluate
their potential in re-invent products, brands and marketing
approaches, still in line with the cultural heritage every company and
every cluster represents.
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6. Nanotech and functional
improvement
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7. Nanotechnology: knowledge background
The technology of nano-substances or
nanocomposites or nanostructures
preparation and use is very complex, but
the main concept of their use is quite
simple: by depositing a thin structured
layer (the order of magnitude is some
nanometres, i.e. some millionths of a
millimetre) of atoms with specific
geometries and patterns onto a surface,
it is possible to "functionalize" the
surface itself, i.e. to modify the intrinsic
behaviour in order to obtain particular
features and/or to avoid specific defects.
≈25 nm
1 nanometre = 1 nm = 10-9 m = 1 billionth of a metre
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8. Nanotechnology: knowledge background
The technology of nano-substances preparation and use is very
complex, but the main concept of their use is quite simple: by
depositing a thin structured layer (the order of magnitude is some
nanometres, i.e. some millionths of a millimetre) of atoms with
specific geometries and patterns onto a surface, it is possible to
"functionalize" the surface itself, i.e. to modify the intrinsic behaviour
in order to obtain particular features and/or to avoid specific defects.
The functions depend on:
chemical structure deposited: atoms, geometry, chemical activity
base substance
treating process
The treatment can be very selective in some cases, thus obtainig
very specific functions.
Let’s see some examples, among the infinity we can think of…...
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9. Nanotech effects: examples….
”
“L otus
t
effec
• Repellence to water and water-based liquids (coffee, alcoholic drinks, etc.)
• Repellence to oils and dirt (= easier maintenance)
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10. Nanotech effects: examples….
• Capacity to trap and adsorb unpleasant
odours (e.g. smoke, animals)
The deposited nano-structured layer incorporates a
fine pattern of cavities, where volatile molecules are
captured and neutralized, preventing unpleasant
effects.
After a certain time, the treatment can be renewed
(by “emptying” the trapping cavities), normally
through a domestic operation (e.g. washing
machine)
• By a similar mechanism it is also possible to gradually
release a volatile substance (perfume, balsam) which has
been charged in the cavities
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11. Nanotech effects: examples….
• Antimicrobial and antifungal
effects can be obtained, either by
modifying the surface to make it
inhospitable for bacteria and fungi,
or to gradually release antimicrobial
substances previously incorporated
in specially structured nano-cells.
• Anti-insect and anti-parasite
effects can be achieved with the
same chemo-physical mechanism,
e.g. against mosquitoes or dust
mites (Dermatophagoides)
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12. Nanotech application to our cluster
Brainstorming….
Open items:
competence of designers and technicians (production, testing)
competence of marketing and sales people (how to transfer value to customers)
new selection of suppliers (including their involvement in product development)
necessary risks and investments
group or cluster strategies to contain risks
qualification and approval of materials and products
instruction to users
…
…
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13. Paint-free wood finishing
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14. Do we really
touch and see wood ???
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15. Do we really
touch and see
Paint - Lacquer
wood ???
Wood
… or do we get in relation with polyurethane, polyester, acrylic, ….. ?
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16. 14th century furniture: no polymer coatings, .... just beeswax!
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17. Can we recover a more direct relation with wood?
Protective
impregnated
wood layer
Paint - Lacquer
Wood Wood
How?
• Waxes, Natural oils, Natural (or at least non toxic) products
• Impregnating instead of covering
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18. Natural or eco-compatible products
are now available in very effective
formulations…
… shall we try?
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19. Brainstorming….
Results Importance Advant. Disadvant. Appeal
(1 to 5) (+1 to +5) (-1 to -5)
• Direct wood touch
• More natural and healthy solutions
• No plastering allowed
• Longer finishing times
• Change in product look and touch
• “Back to the future” effect
• Need of periodic maintenance by users
• New experience in design
• New technical competence needed
• New suppliers needed
•…
•…
•…
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20. Composite materials
for furniture frames
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21. Introduction
Beginning from 1950’s, also some “composite” (even if still rather
traditional) materials have more and more widely come into use; in
evidence we can cite:
- plywood: this wood layers cross-superimposed and glued to form
a uniform-thickness panel with more uniform bending behaviour if
compared with wood, with the benefit of easy modelling into
cylindrical or conical shapes
From: www.danish-furniture.com From: www.momoy.com
- plymetal: a variation of plywood where one or both the external layers
(skins) are made of metal, typically stainless steel or light alloy
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22. Introduction
-fibreglass, or GFRP (Glass Fibre Reinforced Polymer): in a
matrix of polymeric material glass fibres are “sunk” in order to
increase stiffness and resistance. Common matrices are
thermosetting resins, eg. epoxy). The process is normally performed
in a “shell”, which gives the shape to the object. Threaded metallic
inserts can be placed in the GFRP to facilitate assembly with other
parts.
http://www.eitrade.com
From: http://www.vam.ac.uk
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23. Advanced composites
New, more advanced composite materials are arriving from
high-tech sectors (defence, aerospace), like Carbon Fiber, or
Kevlar, offering new features:
HIGH-TECH ASPECT which
HIGH STIFFNESS
is ITSELF INNOVATIVE
HIGH DESIGN
RESISTANCE
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24. Design Process change
Traditional Materials: Composite Materials:
- from raw material to - material and product are
finished product contemporary
- machining process - product and process are
designed together
From: www.shoponline2011.com
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26. Brainstorming…
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27. Brainstorming…
From: www.shoponline2011.com
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28. Brainstorming…
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29. Brainstorming…
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30. Brainstorming…
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31. SWOT Analysis
Strenghts Opportunities
Weaknesses Threats / Risks
SWOT Analysis shall be carried out with specific focus onto LOCAL situation (companies, cluster, infrastructures, etc.)
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32. SWOT Analysis
HIGH
Market appeal
LOW HIGH
Innovation
SWOT Analysis shall be carried out with specific focus onto LOCAL situation (companies, cluster, infrastructures, etc.)
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33. SWOT Analysis
HIGH
Producibility (feasibility)
LOW HIGH
Efficiency (costs)
SWOT Analysis shall be carried out with specific focus onto LOCAL situation (companies, cluster, infrastructures, etc.)
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34. This project has been funded with support from the European
Commission. This publication reflects the views only of the
author, and the Commission cannot be held responsible for
any use which may be made of the information contained
therein.
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