This document describes sustainability-orienting system design tools, including the Sustainability Design-Orienting (SDO) toolkit. The SDO toolkit is a modular software that supports orienting the system design process toward sustainable solutions. It consists of processes to analyze an existing system, identify best practices, generate sustainability-focused ideas, and check/visualize the sustainability of developed concepts. The toolkit provides sustainability dimensions, criteria, and guidelines to suggest eco-efficient and socially equitable stakeholder interactions. It can be used to define sustainability priorities, generate sustainable ideas through brainstorming, and orient system concepts toward sustainability.
4.1 method for system design for sustainability vezzoli 11-12 (38)LeNS_slide
The document describes the MSDS (Method for System Design for Sustainability). MSDS is a method and set of tools to support sustainable design processes. It involves strategic analysis, exploring opportunities to generate ideas, system concept design, system design, and communication. Key phases aim to gain strategic insights, produce sustainable ideas and concepts, define system concepts, develop most promising concepts, and communicate solutions. Main tools include the Sustainability Design-Orienting toolkit, sustainability interaction story-spot, system map, and interaction table to help visualize and design sustainable systems. MSDS takes a modular approach to enable starting at any phase and working on sustainability dimensions.
4.3 (other) system design tools vezzoli 11-12 (51)LeNS_slide
This document describes tools for system design for sustainability (SDS), including a stakeholder system map. The stakeholder system map is a graphical representation that maps the stakeholders involved in a system and the flows of physical, financial, informational, and labor interactions between them. It was developed by Francois Jégou to help design and visualize the configuration of a system. The map uses icons, structures, slogans and descriptions to represent each stakeholder and their relationships. Arrows denote material and information flows between stakeholders. The stakeholder system map is intended to help co-design and analyze the system being studied.
The document discusses designing socio-technical experiments to test and implement eco-efficient product-service systems (PSS). It describes how socio-technical experiments create a protected environment for PSS innovations, involving various actors to learn how to improve the innovation and facilitate its adoption. The key aspects of designing experiments are to set them up, operate them as a lab to test the PSS, use them as a window to demonstrate the PSS and create synergies with other projects, and repeat them in different contexts.
This document discusses tools for visualizing socio-technical experiments that test product-service system (PSS) innovations. It describes representing: 1) the actors network and its evolution over time using a modified system map, and 2) how the experiment works through different phases using a modified interaction table. These tools can illustrate the distinction between actors in the PSS value chain and supporting network, and how they contribute at different stages of the experiment.
6.1 method for system design for sustainability vezzoli 12-13 (38)LeNS_slide
The document describes the MSDS (Method for System Design for Sustainability), which is a method developed to support design processes for developing sustainable systems. The MSDS includes several phases: strategic analysis, exploring opportunities, system concept design, system design, and communication. It also includes several tools to aid various phases of design, such as the Sustainability Design-Orienting toolkit, system maps, interaction tables and storyboards. The overall goal of the MSDS method is to guide designers in developing sustainable product-service systems through a structured process and set of analysis and ideation tools.
5.2 sustainability system design tools vezzoli 09-10 (34)vezzoliDSS
This document describes sustainability-orienting system design tools, including the Sustainability Design-Orienting (SDO) toolkit. The SDO toolkit is a modular software program that aims to orient system design processes toward more sustainable solutions. It provides criteria and guidelines in sustainability dimensions like environmental, socio-ethical, and economic areas. Designers can use the SDO toolkit to evaluate priorities, identify best practices, generate sustainable ideas, and check how well new concepts address sustainability. The document outlines the structure and functions of the SDO toolkit in orienting system designs towards sustainability.
Design transition paths towards sustainabilityvezzoliDSS
This document discusses key factors for facilitating the implementation and diffusion of eco-efficient product-service systems (EE-PSS). It identifies two main factors: 1) Building networks of socio-economic actors to support innovation development and diffusion, involving universities, public institutions, NGOs, and media. 2) Developing a long-term vision to align actor expectations and provide direction, as seen in cases like a bike sharing system, energy service companies, and clothing rental services. The document argues these factors are important for managing the risks of radical system innovations that challenge social and market norms.
This document outlines the design exercise for a pilot course on System Design for Sustainability hosted by Politecnico di Milano and involving guest institutions Indian Institute of Technology and observer institution Srishti School of Art, Design and Technology. The design brief tasks students with designing a sustainable eating system concept for the IIT campus in India. The exercise will utilize the Method for System Design for Sustainability (MSDS) involving phases of strategic analysis, exploring opportunities, system concept design, and system design. Presentations were given on the design exercise, opportunities and challenges of sustainability in India, and food habits at IIT campuses. Students will then generate ideas and design an initial system concept draft.
4.1 method for system design for sustainability vezzoli 11-12 (38)LeNS_slide
The document describes the MSDS (Method for System Design for Sustainability). MSDS is a method and set of tools to support sustainable design processes. It involves strategic analysis, exploring opportunities to generate ideas, system concept design, system design, and communication. Key phases aim to gain strategic insights, produce sustainable ideas and concepts, define system concepts, develop most promising concepts, and communicate solutions. Main tools include the Sustainability Design-Orienting toolkit, sustainability interaction story-spot, system map, and interaction table to help visualize and design sustainable systems. MSDS takes a modular approach to enable starting at any phase and working on sustainability dimensions.
4.3 (other) system design tools vezzoli 11-12 (51)LeNS_slide
This document describes tools for system design for sustainability (SDS), including a stakeholder system map. The stakeholder system map is a graphical representation that maps the stakeholders involved in a system and the flows of physical, financial, informational, and labor interactions between them. It was developed by Francois Jégou to help design and visualize the configuration of a system. The map uses icons, structures, slogans and descriptions to represent each stakeholder and their relationships. Arrows denote material and information flows between stakeholders. The stakeholder system map is intended to help co-design and analyze the system being studied.
The document discusses designing socio-technical experiments to test and implement eco-efficient product-service systems (PSS). It describes how socio-technical experiments create a protected environment for PSS innovations, involving various actors to learn how to improve the innovation and facilitate its adoption. The key aspects of designing experiments are to set them up, operate them as a lab to test the PSS, use them as a window to demonstrate the PSS and create synergies with other projects, and repeat them in different contexts.
This document discusses tools for visualizing socio-technical experiments that test product-service system (PSS) innovations. It describes representing: 1) the actors network and its evolution over time using a modified system map, and 2) how the experiment works through different phases using a modified interaction table. These tools can illustrate the distinction between actors in the PSS value chain and supporting network, and how they contribute at different stages of the experiment.
6.1 method for system design for sustainability vezzoli 12-13 (38)LeNS_slide
The document describes the MSDS (Method for System Design for Sustainability), which is a method developed to support design processes for developing sustainable systems. The MSDS includes several phases: strategic analysis, exploring opportunities, system concept design, system design, and communication. It also includes several tools to aid various phases of design, such as the Sustainability Design-Orienting toolkit, system maps, interaction tables and storyboards. The overall goal of the MSDS method is to guide designers in developing sustainable product-service systems through a structured process and set of analysis and ideation tools.
5.2 sustainability system design tools vezzoli 09-10 (34)vezzoliDSS
This document describes sustainability-orienting system design tools, including the Sustainability Design-Orienting (SDO) toolkit. The SDO toolkit is a modular software program that aims to orient system design processes toward more sustainable solutions. It provides criteria and guidelines in sustainability dimensions like environmental, socio-ethical, and economic areas. Designers can use the SDO toolkit to evaluate priorities, identify best practices, generate sustainable ideas, and check how well new concepts address sustainability. The document outlines the structure and functions of the SDO toolkit in orienting system designs towards sustainability.
Design transition paths towards sustainabilityvezzoliDSS
This document discusses key factors for facilitating the implementation and diffusion of eco-efficient product-service systems (EE-PSS). It identifies two main factors: 1) Building networks of socio-economic actors to support innovation development and diffusion, involving universities, public institutions, NGOs, and media. 2) Developing a long-term vision to align actor expectations and provide direction, as seen in cases like a bike sharing system, energy service companies, and clothing rental services. The document argues these factors are important for managing the risks of radical system innovations that challenge social and market norms.
This document outlines the design exercise for a pilot course on System Design for Sustainability hosted by Politecnico di Milano and involving guest institutions Indian Institute of Technology and observer institution Srishti School of Art, Design and Technology. The design brief tasks students with designing a sustainable eating system concept for the IIT campus in India. The exercise will utilize the Method for System Design for Sustainability (MSDS) involving phases of strategic analysis, exploring opportunities, system concept design, and system design. Presentations were given on the design exercise, opportunities and challenges of sustainability in India, and food habits at IIT campuses. Students will then generate ideas and design an initial system concept draft.
2.2 system design for eco efficiency vezzoli-11-12 (29)LeNS_slide
This document discusses system design for eco-efficiency. It defines system design for eco-efficiency as designing an eco-efficient system of products and services to fulfill a customer demand based on designing interactions between stakeholders. It discusses approaches like designing for customer satisfaction and stakeholder interactions. It also outlines criteria for system design for eco-efficiency like optimizing system life, reducing transportation and resources, and minimizing waste.
4.2 system design for social equity vezzoli 09-10 (30)vezzoliDSS
This document discusses system design for social equity and cohesion. It defines system design for social equity and cohesion as "the design for social equity and cohesion of a (eco-efficient) system of products and services that are together able to fulfil a particular demand of “satisfaction”, as well as the design of the (locally-based and network-structured) interaction of the stakeholders directly and indirectly linked to that “satisfaction” system.” It identifies key criteria for system design for social equity and cohesion, including improving employment/working conditions, enabling responsible consumption, favoring marginalized groups, and empowering local resources. It also discusses methods and tools for orienting system design towards social sustainability.
3.1 eco efficient system innovation vezzoli-09-10 (33)vezzoliDSS
This document discusses system design for sustainability and eco-efficient system innovation. It defines eco-efficient product-service systems (PSS) as designing products and services to fulfill customer needs more efficiently while reducing environmental impacts over the life cycle. Three types of eco-efficient system innovations are described: 1) adding value to the product life cycle through additional services, 2) providing final results to customers rather than products, and 3) providing enabling platforms for customers. Case studies of Kluber Lubrication and Rank Xerox are presented as examples of the first two types.
The document provides an overview of the System Design for Sustainability course. The course aims to teach theories and practices of system design for sustainability. It is a 2-week intensive course consisting of lectures and a design exercise. The lectures cover topics such as sustainable development, life cycle design, eco-efficiency, social equity, and methods/tools for system design. Students will complete a design exercise to develop a sustainable eating system concept for an Indian university campus. Evaluation consists of exams on the lectures and the design project. Resources include an online course platform and a textbook.
3.2 system design for social equity vezzoli 11-12 (29)LeNS_slide
This document provides an overview of system design for social equity and cohesion. It defines system design for social equity and cohesion as designing an eco-efficient system of products and services to fulfill customer demand based on designing stakeholder interactions. It discusses approaches to system design for social equity including designing the satisfaction system, stakeholder configuration, and ensuring system sustainability. It also outlines criteria for system design for social equity and cohesion such as improving employment, enabling responsible consumption, and favoring marginalized groups.
Design opportunities and challenges - a sustainability perspective.ppt [aut...vezzoliDSS
The document discusses opportunities and challenges for design in India. It notes India's growing economy and rising middle class. It outlines new methods for design, including mind mapping, scenarios, mood charts, product clinics, and collaborative design. It discusses the changing role of design in India's competitive environment and how Indian consumers are more conscious of design and quality of life. Finally, it discusses diversity and design at the Indian Institute of Technology in Guwahati.
2.1 product life cycle design vezzoli 09-10 (37)vezzoliDSS
The document discusses Product Life Cycle Design (LCD) and its environmental criteria. It introduces LCD as integrating environmental requirements into the product design process. It then covers the LCD criteria of minimizing resources, selecting low impact resources, optimizing product life, extending material life, and designing for disassembly. The criteria aim to minimize environmental impacts across a product's life cycle from production to disposal. LCD takes a life cycle approach to product design rather than just designing the product.
This document outlines a project that aims to investigate social innovation initiatives within underserved communities in order to inspire new models of collaborative services. The project will identify existing cases of social innovation, collaborate with other design labs, and work directly with communities. It will reflect on the nature of collaborative services and develop tools to help design schools intervene and support these types of initiatives.
1) The document discusses lessons learned and working hypotheses for transitioning towards a more sustainable society based on local resources and communities.
2) It proposes that small, localized changes driven by new visions of the future could lead to a large systemic transition towards sustainability.
3) Designers may play a role by developing scenarios and solutions that promote localized systems changes and reduce consumption while increasing social well-being.
The document summarizes a presentation about understanding social systems transitions and transition management strategies. It discusses analyzing complex social systems, transition dynamics involving fundamental shifts across multiple levels over time, and a transition management approach to influence transitions through visioning, experimentation, and multi-actor governance.
MULO is a family of light, solar and electric-powered vehicles that can be configured for freight transport, passenger transport, green area maintenance, and mobile retail. It is designed for sustainability with a lightweight modular design, ability to be disassembled and recycled, use of renewable energies, and potential for long lifespan and upgradability. A prototype participated successfully in a 2006 race for low-emissions vehicles.
1.3 Evolution Of Sustainability Within DesignLeNS_slide
The document discusses the evolution of sustainability within design. It describes four key approaches: 1) Use of low impact materials/energies, 2) Product life cycle design/ecodesign, 3) (Product-service) system design for eco-efficiency, and 4) Design for social equity and cohesion. For each approach, it provides examples of methods and tools developed to help implement them. It also summarizes some applied research projects conducted by Polimi/DIS in system design for sustainability.
The document discusses unsustainable mobility and the automotive sector. It describes how mobility currently relies heavily on fossil fuels and causes high environmental pollution. The automotive industry focuses on mass production and selling new vehicles for profit, rather than optimizing resource use over the vehicle lifecycle. For mobility to become sustainable, innovations are needed not just in vehicles but also in redesigning the larger production and consumption system to better align economic interests with sustainability goals.
5.2 Food Production And Consuption System In EuropeLeNS_slide
The document discusses the European food production and consumption system. It outlines the various stages from agricultural production to consumption and disposal. It notes the industrialization and globalization of food production. Key issues include the concentration of power in few hands among farmers, processors, and retailers. Other issues are the dependence on fuel, the unsustainability of meat production, potential health impacts of GMOs, biodiversity loss, and the need for fair trading relationships and transparency for consumers. Sustainable food systems aim to provide healthy food access for all generations while being economically, socially and environmentally sustainable.
4.1 towards social equity and cohesion vezzoli 13-14 LeNS_slide
This document discusses system design for sustainability, with a focus on social equity and cohesion. It addresses how product-service systems (PSS) can provide sustainable opportunities for low and middle-income contexts. Distributed economies, which involve small, locally-based and networked production units, show promise as a PSS approach that can enhance socio-economic development and reduce inequality in these contexts. The document provides examples of PSS cases and outlines how distributed economies may facilitate social equity and cohesion through greater participation and more democratic access to resources.
4.2 system design for social equity vezzoli 14-15 (23) (n)LeNS_slide
This document discusses system design for social equity and cohesion. It defines system design as designing interactions between stakeholders in a system to fulfill customer demands in a sustainable way. It presents criteria for social equity and cohesion in system design, such as improving employment, enabling sustainable consumption, and empowering local resources. Methods and tools are needed to guide system design according to these criteria. The document also introduces an emerging methodology for system design for sustainability and a toolkit for sustainability design orientation.
5.5 off main-grid technologies for power generation in rural contextsLeNS_slide
This document provides an overview of off-grid power generation technologies for rural contexts. It begins with a 4-step process for designing off-grid energy systems that matches local needs with available resources in an optimized and cost-effective manner. The document then discusses assessing local energy needs and available solar, wind, and hydro resources. It provides technology summaries of solar photovoltaics, small wind turbines, and small hydropower systems. Hybrid systems that combine these technologies with batteries or diesel generators are also discussed. The document concludes with considerations for evaluating the impact of off-grid technologies on local development.
1.1 sustainable development and system innovation vezzoli 10-11 (29)LeNS_slide
The document discusses sustainable development and system innovation. It covers the dimensions of sustainability including environmental, socio-ethical, and economic sustainability. It notes that sustainability requires major changes in systems of production and consumption to use far less resources. System innovation is needed to promote more sustainable systems that create value while decoupling from material and energy consumption.
3.1 eco efficient system innovation vezzoli-13-14 LeNS_slide
The document discusses eco-efficient product-service systems (PSS) as a way to promote more sustainable consumption and production systems. It defines PSS as integrated mixes of products and services that fulfill customer needs while reducing environmental impact. Three types of eco-efficient PSS are described: 1) adding value to product life cycles, 2) providing final results to customers, and 3) providing enabling platforms. Examples like pay-per-use washing machine services are provided. Barriers to the adoption of eco-efficient PSS include cultural and business model shifts, but they represent a promising win-win approach if designed well to avoid rebound effects.
1. The document summarizes the launch of the African Learning Network on Sustainability (LENS Africa) at Cape Peninsula University of Technology in Cape Town, South Africa on September 7, 2009.
2. LENS Africa aims to promote design for sustainability in Africa through an open-source and collaborative online learning platform.
3. It was officially launched with partners from several universities across Africa and is supported by the ongoing LENS EU-Asia Link project coordinated by Politecnico di Milano.
2.2 system design for eco efficiency vezzoli-11-12 (29)LeNS_slide
This document discusses system design for eco-efficiency. It defines system design for eco-efficiency as designing an eco-efficient system of products and services to fulfill a customer demand based on designing interactions between stakeholders. It discusses approaches like designing for customer satisfaction and stakeholder interactions. It also outlines criteria for system design for eco-efficiency like optimizing system life, reducing transportation and resources, and minimizing waste.
4.2 system design for social equity vezzoli 09-10 (30)vezzoliDSS
This document discusses system design for social equity and cohesion. It defines system design for social equity and cohesion as "the design for social equity and cohesion of a (eco-efficient) system of products and services that are together able to fulfil a particular demand of “satisfaction”, as well as the design of the (locally-based and network-structured) interaction of the stakeholders directly and indirectly linked to that “satisfaction” system.” It identifies key criteria for system design for social equity and cohesion, including improving employment/working conditions, enabling responsible consumption, favoring marginalized groups, and empowering local resources. It also discusses methods and tools for orienting system design towards social sustainability.
3.1 eco efficient system innovation vezzoli-09-10 (33)vezzoliDSS
This document discusses system design for sustainability and eco-efficient system innovation. It defines eco-efficient product-service systems (PSS) as designing products and services to fulfill customer needs more efficiently while reducing environmental impacts over the life cycle. Three types of eco-efficient system innovations are described: 1) adding value to the product life cycle through additional services, 2) providing final results to customers rather than products, and 3) providing enabling platforms for customers. Case studies of Kluber Lubrication and Rank Xerox are presented as examples of the first two types.
The document provides an overview of the System Design for Sustainability course. The course aims to teach theories and practices of system design for sustainability. It is a 2-week intensive course consisting of lectures and a design exercise. The lectures cover topics such as sustainable development, life cycle design, eco-efficiency, social equity, and methods/tools for system design. Students will complete a design exercise to develop a sustainable eating system concept for an Indian university campus. Evaluation consists of exams on the lectures and the design project. Resources include an online course platform and a textbook.
3.2 system design for social equity vezzoli 11-12 (29)LeNS_slide
This document provides an overview of system design for social equity and cohesion. It defines system design for social equity and cohesion as designing an eco-efficient system of products and services to fulfill customer demand based on designing stakeholder interactions. It discusses approaches to system design for social equity including designing the satisfaction system, stakeholder configuration, and ensuring system sustainability. It also outlines criteria for system design for social equity and cohesion such as improving employment, enabling responsible consumption, and favoring marginalized groups.
Design opportunities and challenges - a sustainability perspective.ppt [aut...vezzoliDSS
The document discusses opportunities and challenges for design in India. It notes India's growing economy and rising middle class. It outlines new methods for design, including mind mapping, scenarios, mood charts, product clinics, and collaborative design. It discusses the changing role of design in India's competitive environment and how Indian consumers are more conscious of design and quality of life. Finally, it discusses diversity and design at the Indian Institute of Technology in Guwahati.
2.1 product life cycle design vezzoli 09-10 (37)vezzoliDSS
The document discusses Product Life Cycle Design (LCD) and its environmental criteria. It introduces LCD as integrating environmental requirements into the product design process. It then covers the LCD criteria of minimizing resources, selecting low impact resources, optimizing product life, extending material life, and designing for disassembly. The criteria aim to minimize environmental impacts across a product's life cycle from production to disposal. LCD takes a life cycle approach to product design rather than just designing the product.
This document outlines a project that aims to investigate social innovation initiatives within underserved communities in order to inspire new models of collaborative services. The project will identify existing cases of social innovation, collaborate with other design labs, and work directly with communities. It will reflect on the nature of collaborative services and develop tools to help design schools intervene and support these types of initiatives.
1) The document discusses lessons learned and working hypotheses for transitioning towards a more sustainable society based on local resources and communities.
2) It proposes that small, localized changes driven by new visions of the future could lead to a large systemic transition towards sustainability.
3) Designers may play a role by developing scenarios and solutions that promote localized systems changes and reduce consumption while increasing social well-being.
The document summarizes a presentation about understanding social systems transitions and transition management strategies. It discusses analyzing complex social systems, transition dynamics involving fundamental shifts across multiple levels over time, and a transition management approach to influence transitions through visioning, experimentation, and multi-actor governance.
MULO is a family of light, solar and electric-powered vehicles that can be configured for freight transport, passenger transport, green area maintenance, and mobile retail. It is designed for sustainability with a lightweight modular design, ability to be disassembled and recycled, use of renewable energies, and potential for long lifespan and upgradability. A prototype participated successfully in a 2006 race for low-emissions vehicles.
1.3 Evolution Of Sustainability Within DesignLeNS_slide
The document discusses the evolution of sustainability within design. It describes four key approaches: 1) Use of low impact materials/energies, 2) Product life cycle design/ecodesign, 3) (Product-service) system design for eco-efficiency, and 4) Design for social equity and cohesion. For each approach, it provides examples of methods and tools developed to help implement them. It also summarizes some applied research projects conducted by Polimi/DIS in system design for sustainability.
The document discusses unsustainable mobility and the automotive sector. It describes how mobility currently relies heavily on fossil fuels and causes high environmental pollution. The automotive industry focuses on mass production and selling new vehicles for profit, rather than optimizing resource use over the vehicle lifecycle. For mobility to become sustainable, innovations are needed not just in vehicles but also in redesigning the larger production and consumption system to better align economic interests with sustainability goals.
5.2 Food Production And Consuption System In EuropeLeNS_slide
The document discusses the European food production and consumption system. It outlines the various stages from agricultural production to consumption and disposal. It notes the industrialization and globalization of food production. Key issues include the concentration of power in few hands among farmers, processors, and retailers. Other issues are the dependence on fuel, the unsustainability of meat production, potential health impacts of GMOs, biodiversity loss, and the need for fair trading relationships and transparency for consumers. Sustainable food systems aim to provide healthy food access for all generations while being economically, socially and environmentally sustainable.
4.1 towards social equity and cohesion vezzoli 13-14 LeNS_slide
This document discusses system design for sustainability, with a focus on social equity and cohesion. It addresses how product-service systems (PSS) can provide sustainable opportunities for low and middle-income contexts. Distributed economies, which involve small, locally-based and networked production units, show promise as a PSS approach that can enhance socio-economic development and reduce inequality in these contexts. The document provides examples of PSS cases and outlines how distributed economies may facilitate social equity and cohesion through greater participation and more democratic access to resources.
4.2 system design for social equity vezzoli 14-15 (23) (n)LeNS_slide
This document discusses system design for social equity and cohesion. It defines system design as designing interactions between stakeholders in a system to fulfill customer demands in a sustainable way. It presents criteria for social equity and cohesion in system design, such as improving employment, enabling sustainable consumption, and empowering local resources. Methods and tools are needed to guide system design according to these criteria. The document also introduces an emerging methodology for system design for sustainability and a toolkit for sustainability design orientation.
5.5 off main-grid technologies for power generation in rural contextsLeNS_slide
This document provides an overview of off-grid power generation technologies for rural contexts. It begins with a 4-step process for designing off-grid energy systems that matches local needs with available resources in an optimized and cost-effective manner. The document then discusses assessing local energy needs and available solar, wind, and hydro resources. It provides technology summaries of solar photovoltaics, small wind turbines, and small hydropower systems. Hybrid systems that combine these technologies with batteries or diesel generators are also discussed. The document concludes with considerations for evaluating the impact of off-grid technologies on local development.
1.1 sustainable development and system innovation vezzoli 10-11 (29)LeNS_slide
The document discusses sustainable development and system innovation. It covers the dimensions of sustainability including environmental, socio-ethical, and economic sustainability. It notes that sustainability requires major changes in systems of production and consumption to use far less resources. System innovation is needed to promote more sustainable systems that create value while decoupling from material and energy consumption.
3.1 eco efficient system innovation vezzoli-13-14 LeNS_slide
The document discusses eco-efficient product-service systems (PSS) as a way to promote more sustainable consumption and production systems. It defines PSS as integrated mixes of products and services that fulfill customer needs while reducing environmental impact. Three types of eco-efficient PSS are described: 1) adding value to product life cycles, 2) providing final results to customers, and 3) providing enabling platforms. Examples like pay-per-use washing machine services are provided. Barriers to the adoption of eco-efficient PSS include cultural and business model shifts, but they represent a promising win-win approach if designed well to avoid rebound effects.
1. The document summarizes the launch of the African Learning Network on Sustainability (LENS Africa) at Cape Peninsula University of Technology in Cape Town, South Africa on September 7, 2009.
2. LENS Africa aims to promote design for sustainability in Africa through an open-source and collaborative online learning platform.
3. It was officially launched with partners from several universities across Africa and is supported by the ongoing LENS EU-Asia Link project coordinated by Politecnico di Milano.
K1 Sufficiency Economy Moi Kmitl 20 May09LeNS_slide
The document summarizes the origin and philosophy of Sufficiency Economy, an economic framework introduced by King Bhumibol Adulyadej of Thailand. It discusses how the King developed agricultural projects on the grounds of Chitralada Palace to provide lessons for self-reliant farming. This led to the establishment of various Royal Development Study Centres and the promotion of Sufficiency Economy, which stresses moderation, reasonableness, and self-immunity. The philosophy aims to achieve balance and sustainability at all levels through its implementation and dissemination.
The document discusses organic food in Thailand. It provides context on food safety regulations and certification standards in Thailand. It also summarizes a survey that found over a third of respondents in Bangkok had purchased organic produce. Those who purchased organic tended to be older, more educated, and have higher incomes. Many non-purchasers did not know what organic meant or thought certified food was enough.
This document outlines a design exercise for students to develop sustainable product-service systems (S.PSS) that provide distributed renewable energy (DRE) for households in African communities. Students will design systems for eating or clothing care in villages/townships in Botswana, Uganda, South Africa, or Kenya. The exercise involves analyzing the context, generating ideas, and developing system concepts. Students will consider environmental, socio-ethical, and economic sustainability dimensions. They will create system maps, interaction tables, and storyboards to illustrate their concepts. The goal is to design DRE systems that provide essential household functions through sustainable energy access for communities.
- The document discusses strategies for designing experiments to promote sustainability transitions, such as moving energy systems away from fossil fuels. It presents a framework called ESTEEM for designing strategic experiments.
- ESTEEM involves analyzing a case study project, articulating the visions and expectations of stakeholders, identifying conflicting issues, developing options to address issues, and making recommendations to enable collaboration.
- The case study examined is a carbon capture and storage experiment in the Netherlands to demonstrate how ESTEEM can be applied to analyze a specific transition experiment.
The document discusses sustainable energy access for all as essential for sustainable development. It outlines that over 1 billion people lack electricity access and over 2 billion rely on inefficient and polluting biomass for cooking. Distributed renewable energy (DRE) is presented as a promising model to achieve universal access through small-scale, decentralized energy generation near the point of use, often from solar, wind and other renewable sources. DRE can help transition away from unsustainable centralized fossil fuel systems towards greater environmental, social and economic sustainability.
6.2 sustainability system design tools vezzoli 12-13 (33)LeNS_slide
This document describes two tools for orienting system design towards sustainability: the Sustainability Design-Orienting (SDO) toolkit and the Sustainability Interaction Story-Spot. The SDO toolkit is a modular software that supports evaluating existing systems, analyzing best practices, generating sustainable ideas, and checking sustainability improvements. It includes criteria, guidelines, and checklists for environmental, socio-ethical and economic dimensions. The Sustainability Interaction Story-Spot visually represents key sustainability interactions achieved through a concept using images, text, and notes highlighting criteria. Both tools integrate into the design process and aim to improve sustainability of products, services and systems.
5.1 method for system design for sustainability vezzoli 09-10 (33)vezzoliDSS
The document describes the MSDS (Method for System Design for Sustainability). It is intended to promote a design process for developing sustainable systems that can be adapted to different design needs and integrated into existing design processes. The MSDS method involves several phases: strategic analysis to identify sustainability priorities, exploring opportunities to generate sustainable ideas and scenarios, system concept design, system design and engineering, and communication. It uses a modular approach and several tools to enable designers to work on sustainability dimensions in a flexible way.
5.1 method for system design for sustainability vezzoli 09-10 (33)vezzoliDSS
The document describes the MSDS (Method for System Design for Sustainability). It is a modular method for promoting sustainable design of systems. The method involves strategic analysis, exploring opportunities to generate sustainable ideas, system concept design, system design and engineering, and communication. Key phases include defining sustainability priorities, generating ideas, designing system concepts, and checking concepts for environmental/sustainability improvements. Tools used include the Sustainability Design-Orienting toolkit, system maps, interaction tables, and satisfaction offering diagrams. The goal is to design integrated systems that fulfill demands through eco-efficient and socio-ethical solutions.
This document describes sustainability-orienting system design tools, including the Sustainability Design-Orienting (SDO) toolkit and the Sustainability Interaction Story-Spot. The SDO toolkit is a modular software that supports sustainability analysis, concept generation, and concept evaluation. It includes criteria, guidelines and checklists. The Sustainability Interaction Story-Spot visually represents key sustainability interactions and the criteria achieved through a concept using images, text and notes. Both tools are meant to orient system design towards more sustainable solutions and can be integrated into the design process at increasing levels of detail.
The document describes the Method for System Design for Sustainability (MSDS), which provides methods and tools to orient system design towards more sustainable solutions. MSDS includes phases like strategic analysis, exploring opportunities, and system concept design. It uses tools like the Sustainability Design-Orienting toolkit and Sustainability Interaction Story-Spot to prioritize sustainability criteria, generate ideas, and check sustainability improvements at different design stages. The overall goal of MSDS is to facilitate the design of integrated product-service systems that fulfill demands in more environmentally, socially, and economically sustainable ways.
6.1 method for system design for sustainabilityLeNS_slide
The document describes the Method for System Design for Sustainability (MSDS), which provides a framework to support the design of sustainable product-service systems. The MSDS method involves several phases - strategic analysis, exploring opportunities, system concept design, system design and engineering, and communication. It utilizes various tools to analyze sustainability priorities, generate ideas, develop system concepts, and evaluate concepts. The overall goal of the method is to guide designers in developing innovative system interactions and solutions that continuously improve environmental, socio-ethical and economic sustainability.
6.2 sustainability system design tools vezzoli 14-15 (34)Emanuela Emy
This document describes sustainability-orienting system design tools, including the Sustainability Design-Orienting (SDO) toolkit. The SDO toolkit is a modular software that supports orienting the system design process towards sustainable solutions. It includes processes for analyzing an existing system, identifying sustainable best practices, generating sustainable ideas, and checking the sustainability of developed concepts. The document provides details on the structure and components of the SDO toolkit and how it can be integrated into the design process to increase sustainability.
6.2 sustainability system design tools vezzoli 14-15 (34)LeNS_slide
This document describes two sustainability-orienting system design tools: the Sustainability Design-Orienting (SDO) toolkit and the Sustainability Interaction Story-Spot. The SDO toolkit is a modular software that guides designers in evaluating existing systems, identifying best practices, generating sustainable ideas, and checking concepts against sustainability criteria. The Sustainability Interaction Story-Spot visually depicts key stakeholder interactions that improve sustainability criteria through images and short texts. Both tools integrate into the design process to increase orientation of concepts toward sustainable outcomes.
6.2 sustainability system design tools vezzoli 10-11 (32)LeNS_slide
The document describes two tools for orienting system design towards sustainability:
1) The Sustainability Design-Orienting (SDO) toolkit is a modular software that helps define priorities, generate ideas, and check sustainability improvements.
2) The Sustainability Interaction Story-Spot visually represents key stakeholder interactions and highlights the sustainability criteria achieved through short descriptions and images. Both tools aim to guide designers in developing more sustainable solutions.
4.2 system design for social equity vezzoli 12-13 (24)LeNS_slide
This document discusses system design for social equity and cohesion. It defines system design for social equity and cohesion as designing stakeholder interactions within a system to fulfill customer demands in a way that continuously pursues socio-ethically beneficial solutions. It outlines approaches like satisfaction-system design and stakeholder configuration design. It presents criteria for social equity like improving employment, enabling responsible consumption, and favoring marginalized groups. Finally, it introduces methods and tools developed by the Learning Network on Sustainability for system design for sustainability.
6.1 method for system design for sustainability vezzoli 14-15 (71)LeNS_slide
The document describes the MSDS (Method for System Design for Sustainability) method. It was created to support the design of sustainable product-service system solutions. The MSDS method involves several phases and tools to guide designers in strategically analyzing the context, generating ideas, and developing concepts for sustainable systems. It aims to be modular and adaptable to different design processes and projects. Key tools described include the Sustainability Design-Orienting toolkit to inspire sustainable solutions, and the Sustainability Interaction Story-Spot and System Map to visualize system interactions and configurations.
6.1 method for system design for sustainability vezzoli 14-15 (71)Emanuela Emy
The document describes the MSDS (Method for System Design for Sustainability) method. It was created to support the design of sustainable product-service system solutions. The MSDS method involves several phases and tools to guide designers in strategically analyzing the context, generating ideas, and developing concepts for sustainable systems. It aims to be modular and adaptable to different design processes and projects. Key tools described include the Sustainability Design-Orienting toolkit to inspire sustainable solutions, and the Sustainability Interaction Story-Spot to visualize system interactions and impacts.
3.2 system design for eco efficiency vezzoli-12-13 (29)LeNS_slide
This document provides an overview of system design for eco-efficiency. It defines system design for eco-efficiency as designing interactions between stakeholders in a system to fulfill a customer demand in a way that continuously seeks environmentally beneficial solutions for economic and competitive reasons. It discusses approaches for satisfaction-system design and stakeholder configuration design. It outlines criteria for system design for eco-efficiency, including system life optimization, transportation reduction, resource reduction, waste minimization, conservation, and toxic reduction. Finally, it introduces methods and tools developed by Politecnico di Milano to guide system design towards more sustainable solutions.
The document provides guidance for a design exercise focused on developing sustainable systems for specific contexts in Africa. Students will design systems related to eating, clothing care, etc. for contexts in Cape Town, Gaborone, Kampala, and Nairobi. The design process involves strategic analysis, exploring opportunities, and system concept design. Key steps include generating ideas, developing concepts, and assessing concepts' environmental, socio-ethical and economic impacts. The goal is for students to create an animatic presenting their finalized system concept.
5.1 Sustainability Oriented System Design Methods And Tools Vezzoli 07 08 (28...vezzoli
The document describes methods and tools for system design for sustainability, including the MEPSS methodology and its phases. It introduces the Sustainability Design-Orienting (SDO) toolkit that can be used to orient system design towards sustainable solutions. The SDO toolkit includes criteria, guidelines, and tools to generate ideas, check improvements, and visualize sustainability impacts at different stages of the design process. It also describes the interaction story-spot tool that visually depicts key interactions of a system idea in relation to sustainability goals.
3.2 system design for eco efficiency vezzoli-10-11 (34)LeNS_slide
The document discusses system design for eco-efficiency, which involves designing interactions between stakeholders to fulfill a customer satisfaction demand in an environmentally sustainable way. It defines system design for eco-efficiency as designing 1) the satisfaction system to meet a demand, 2) interactions between stakeholders, and 3) the system for intrinsic eco-efficiency. Criteria for system design for eco-efficiency include optimizing system life, reducing transportation, resources and waste, and minimizing toxicity. Methods and tools are presented to guide system design towards more sustainable solutions.
3.2 system design for eco efficiency vezzoli-13-14 LeNS_slide
The document discusses system design for eco-efficiency. It defines system design for eco-efficiency as designing innovative interactions between stakeholders to fulfill customer demands in a way that continuously seeks environmentally beneficial solutions due to economic interests. It discusses approaches to this including designing for customer satisfaction units, stakeholder configurations, and system eco-efficiency criteria. The criteria aim to optimize the system life, reduce transportation and resources, minimize waste, conserve resources, and reduce toxins.
Design transition paths towards sustainabilityvezzoliDSS
This document discusses eco-efficient product-service systems and barriers to their adoption. It notes that while several eco-efficient PSS innovations have been implemented, they often face difficulties spreading due to: cultural barriers for users accustomed to ownership; challenges for companies to change business models; and regulations not always supporting new solutions. The document examines specific case studies and concludes that eco-efficient PSS typically present radical innovations that challenge habits, organizations and rules in ways that hamper their widespread adoption for sustainability.
This document summarizes a discussion on improving standards development processes in the learning, education, and training domain. It outlines the current Process and Product Legitimacy model used to analyze standards. Participants identified opportunities like increasing stakeholder involvement and recognizing diverse standards bodies. Barriers included a lack of inclusiveness and understanding of standards scopes. Solutions proposed were learning from agile specification processes, improving adoption support, and managing expectations of policymakers. The document concludes by outlining an improved model with multiple perspectives to better understand standards development drivers and motivate diverse stakeholders.
6.1 method for system design for sustainability vezzoli 10-11 (40)LeNS_slide
The document discusses the MSDS (Method for System Design for Sustainability) method for designing sustainable systems. It describes the phases of MSDS including strategic analysis, exploring opportunities, system concept design, and system design. It outlines the goals and tools used in each phase, such as the sustainability design-orienting toolkit, interaction storyboard, and satisfaction offering diagram. The overview emphasizes that MSDS is a modular method to enable starting the process at any phase and focusing on selected dimensions of sustainability.
Similar to 4.2 sustainability system design tools vezzoli 11-12 (33) (20)
Flat packed and easy assembled stool - King & Webbon.pptxLeNS_slide
The flat-packed lab stool can be assembled in less than 15 minutes using an allen wrench. It is made from sustainably sourced beech ply in the UK. The stool is stackable, making it suitable for small spaces. The lab stool collaboration between King & Webbon design studio and the Science Museum aims to create furniture designed to last rather than be disposable through its flat-pack design that can be assembled on-site to reduce transportation energy consumption and packaging waste.
6.4 sustainable for all design orienting toolsLeNS_slide
This document provides an overview of tools and methods for designing sustainable distributed renewable energy (DRE) systems oriented towards achieving sustainable energy for all. It describes a sustainable design orienting scenario (SDOS) approach for generating ideas for product-service systems applied to DRE in low and middle income contexts. The SDOS uses scenario narratives, videos and diagrams to inspire idea generation. It also outlines several forms and online databases for evaluating energy needs, production potential, and dimensions for a proposed DRE system concept. The tools are intended to guide the design process from idea generation through concept development and evaluation.
The document describes three tools for system design for sustainability: the stakeholder system map, interaction table, and satisfaction offering diagram. The stakeholder system map visually maps out the stakeholders in a system and their interactions through flows of materials, information, finances, and labor. The interaction table and storyboard tools are used to design and visualize the functioning of a system over time through narratives and images of interactions between stakeholders. The satisfaction offering diagram maps out what satisfactions or benefits a system offers to different stakeholder groups.
0.0 introduzione corso metodi dxs vezzoli 14-15 (16)LeNS_slide
This document outlines the structure and content of a course on System Design for Sustainability taught by Carlo Vezzoli at Politecnico di Milano. The course includes both theoretical and practical components. The theoretical section will cover introductions to sustainable product systems and design methods. The practical section involves a group project to develop concepts for sustainable product-service systems for food services on campus. Recommended readings and online learning resources are also listed. The document provides background on the Learning Network on Sustainability (LeNS) project, which developed an open-source online platform for sharing materials on sustainable design.
This document provides guidelines for designing sustainable product-service systems applied to distributed renewable energy systems. It outlines various configurations for distributed renewable energy offers, such as stand-alone home systems, mini-grids connecting multiple systems, and systems connected to main grids. It also recommends complementing energy offers with lifecycle services like design, installation, maintenance, repair, upgrading, and end-of-life treatment. Further guidelines include offering ownerless energy systems with full services, using systems as enabling platforms, adding energy-using products, and delinking payment from pure energy consumption. The overall aim is to optimize distributed renewable energy configurations and make the systems more sustainable and affordable.
This document provides guidelines for designing sustainable product-service systems applied to distributed renewable energy systems. It suggests offering standalone and mini-grid DRE systems, complementing the DRE offer with lifecycle services, offering ownerless DRE systems with full services, and delinking payment from pure watt consumption to make costs more affordable. The guidelines are presented over six pages and cover optimizing DRE system configuration, complementing the offer with design, installation, and maintenance services, and adding energy using products to the offer.
This document provides guidelines for designing sustainable product-service systems (S.PSS) applied to distributed renewable energy (DRE) systems. It suggests 6 areas to focus on: 1) Optimizing DRE system configurations, 2) Complementing DRE offers with lifecycle services, 3) Offering ownerless DRE systems with full services, 4) Offering ownerless DRE systems as an enabling platform, 5) Adding ownerless energy-using products to DRE offers, and 6) Delinking payments from pure watt consumption to make costs more affordable. The overall aim is to provide sustainable energy access through optimized DRE system designs coupled with comprehensive lifecycle services.
5.1 sustainable energy for all vezzoli 14-15_(34)LeNS_slide
The document discusses the importance of sustainable energy for all as a key enabler of sustainable development. It argues that distributed renewable energy (DRE) systems offer a promising model for achieving sustainable energy for all through a paradigm shift away from centralized non-renewable energy systems. DRE involves small-scale energy generation from renewable resources like solar and wind located near the point of use. Sustainable product-service systems (S.PSS) are also presented as a business model that could facilitate widespread adoption of DRE by reducing costs and giving access to necessary goods and services.
5.2 system design for sustainable energy for all vezzoli 14_15_(29)LeNS_slide
This document proposes a sustainability design-orienting scenario (SDOS) for applying a product-service system (PSS) to distributed renewable energy (DRE) systems. It presents 4 visions for how a PSS approach could provide sustainable energy access for all. The visions include: 1) DRE systems and daily life energy products provided to individuals/communities in exchange for periodic payments, 2) DRE systems provided to power small businesses' equipment in exchange for periodic payments, 3) DRE systems and packages of energy products provided to individuals/communities where payment is based on product usage, and 4) Packages of DRE systems and startup equipment provided to entrepreneurs to launch businesses where payment is based on periodic fees. The goal
4.1 towards social equity and cohesion vezzoli 14-15 (22)LeNS_slide
This document discusses approaches to promoting social equity and cohesion through system design. It proposes that product-service systems (PSS) and distributed economies (DE) are promising models, and that applying sustainable PSS approaches to DE could facilitate locally-based, small-scale sustainable opportunities for all contexts, including low-income areas. A key hypothesis presented is that a sustainable PSS approach applied to DE could help diffuse various forms of DE in low and middle-income contexts by fostering locally-based, networked small enterprises and initiatives that democratize access to sustainable resources.
1.2 evolution of sustainability in design vezzoli 14-15 (41) (n)LeNS_slide
This document discusses the evolution of sustainability within design. It describes how design's role has expanded over time from intervening on products and materials to intervening on entire systems and consumption patterns. Specifically, it outlines how design has progressed from focusing on low-impact materials in the 1970s to life cycle design and ecodesign in the 1990s to system design for eco-efficiency starting in the 2000s. The document also notes that while design's potential role in sustainability has increased over time, many within the design community still lack knowledge and skills related to design for sustainability.
3.2 system design for eco efficiency vezzoli-14-15 (28)LeNS_slide
This document discusses system design for eco-efficiency. It defines system design for eco-efficiency as designing innovative interactions between stakeholders in a satisfaction system where economic interests drive environmental benefits. It presents approaches for designing the satisfaction system and stakeholders' interactions. It outlines criteria for system design for eco-efficiency, including optimizing the system life, reducing transportation, minimizing resources and waste, and reducing toxicity. Methods and tools are presented for applying these criteria to guide system design towards more sustainable solutions.
3.1 eco efficient system innovation vezzoli-14-15 (42)LeNS_slide
The document discusses eco-efficient product-service systems (PSS) as an innovative business model that can significantly reduce environmental impacts compared to traditional sales models. It defines three types of eco-efficient PSS: 1) adding value to the product life cycle by providing additional services, 2) providing final results to customers instead of products, and 3) providing enabling platforms for customers to obtain satisfaction. The document argues that when providers retain ownership of products and are paid based on the value or use of the products, their economic interests are aligned with designing and offering products that have lower environmental impacts through longer lifespans, higher resource efficiency, easier recyclability, and broader access to customers.
2. product life cycle design vezzoli 14-15 (41)LeNS_slide
This document provides an introduction to product life cycle design from Carlo Vezzoli. It discusses key concepts like life cycle assessment, the functional approach, and environmental criteria for product life cycle design including resource minimization, low impact material selection, optimizing product life, and extending material life through design for recycling, energy recovery, and composting. The goal of product life cycle design is to minimize environmental impacts across a product's entire life cycle from production to end of life.
1.1 sustainable development and system innovation vezzoli 14-15LeNS_slide
The document discusses sustainable development and system innovation. It provides context on the economic, environmental, and societal crises currently facing the world. It defines sustainable development as development that meets current needs without compromising future generations, considering environmental limits and equitable resource distribution. Key dimensions of sustainability are identified as environmental, socio-ethical, and economic. The environmental impacts of issues like climate change and methods to achieve environmental sustainability are examined. Achieving socio-ethical sustainability requires meeting basic human needs and promoting social equity and justice. Economic sustainability necessitates viable economic solutions. System innovation is needed to transition towards greater sustainability.
This document provides information about a course on System Design for Sustainability taught by Carlo Vezzoli at Politecnico di Milano. The course aims to teach the theory and practice of designing sustainable product-service systems. It includes 5 lectures on sustainability theory and an 8-week design exercise. Students will work in groups to design sustainable energy systems for households in African slums. The course is part of the Learning Network on Sustainability, a collaboration between European and Asian design schools to promote sustainability education.
SATTA MATKA DPBOSS KALYAN MATKA RESULTS KALYAN CHART KALYAN MATKA MATKA RESULT KALYAN MATKA TIPS SATTA MATKA MATKA COM MATKA PANA JODI TODAY BATTA SATKA MATKA PATTI JODI NUMBER MATKA RESULTS MATKA CHART MATKA JODI SATTA COM INDIA SATTA MATKA MATKA TIPS MATKA WAPKA ALL MATKA RESULT LIVE ONLINE MATKA RESULT KALYAN MATKA RESULT DPBOSS MATKA 143 MAIN MATKA KALYAN MATKA RESULTS KALYAN CHART
The Steadfast and Reliable Bull: Taurus Zodiac Signmy Pandit
Explore the steadfast and reliable nature of the Taurus Zodiac Sign. Discover the personality traits, key dates, and horoscope insights that define the determined and practical Taurus, and learn how their grounded nature makes them the anchor of the zodiac.
Adani Group's Active Interest In Increasing Its Presence in the Cement Manufa...Adani case
Time and again, the business group has taken up new business ventures, each of which has allowed it to expand its horizons further and reach new heights. Even amidst the Adani CBI Investigation, the firm has always focused on improving its cement business.
High-Quality IPTV Monthly Subscription for $15advik4387
Experience high-quality entertainment with our IPTV monthly subscription for just $15. Access a vast array of live TV channels, movies, and on-demand shows with crystal-clear streaming. Our reliable service ensures smooth, uninterrupted viewing at an unbeatable price. Perfect for those seeking premium content without breaking the bank. Start streaming today!
https://rb.gy/f409dk
NIMA2024 | De toegevoegde waarde van DEI en ESG in campagnes | Nathalie Lam |...BBPMedia1
Nathalie zal delen hoe DEI en ESG een fundamentele rol kunnen spelen in je merkstrategie en je de juiste aansluiting kan creëren met je doelgroep. Door middel van voorbeelden en simpele handvatten toont ze hoe dit in jouw organisatie toegepast kan worden.
Satta matka fixx jodi panna all market dpboss matka guessing fixx panna jodi kalyan and all market game liss cover now 420 matka office mumbai maharashtra india fixx jodi panna
Call me 9040963354
WhatsApp 9040963354
SATTA MATKA DPBOSS KALYAN MATKA RESULTS KALYAN CHART KALYAN MATKA MATKA RESULT KALYAN MATKA TIPS SATTA MATKA MATKA COM MATKA PANA JODI TODAY BATTA SATKA MATKA PATTI JODI NUMBER MATKA RESULTS MATKA CHART MATKA JODI SATTA COM INDIA SATTA MATKA MATKA TIPS MATKA WAPKA ALL MATKA RESULT LIVE ONLINE MATKA RESULT KALYAN MATKA RESULT DPBOSS MATKA 143 MAIN MATKA KALYAN MATKA RESULTS KALYAN CHART
AI Transformation Playbook: Thinking AI-First for Your BusinessArijit Dutta
I dive into how businesses can stay competitive by integrating AI into their core processes. From identifying the right approach to building collaborative teams and recognizing common pitfalls, this guide has got you covered. AI transformation is a journey, and this playbook is here to help you navigate it successfully.
Unlocking WhatsApp Marketing with HubSpot: Integrating Messaging into Your Ma...Niswey
50 million companies worldwide leverage WhatsApp as a key marketing channel. You may have considered adding it to your marketing mix, or probably already driving impressive conversions with WhatsApp.
But wait. What happens when you fully integrate your WhatsApp campaigns with HubSpot?
That's exactly what we explored in this session.
We take a look at everything that you need to know in order to deploy effective WhatsApp marketing strategies, and integrate it with your buyer journey in HubSpot. From technical requirements to innovative campaign strategies, to advanced campaign reporting - we discuss all that and more, to leverage WhatsApp for maximum impact. Check out more details about the event here https://events.hubspot.com/events/details/hubspot-new-delhi-presents-unlocking-whatsapp-marketing-with-hubspot-integrating-messaging-into-your-marketing-strategy/
SATTA MATKA DPBOSS KALYAN MATKA RESULTS KALYAN CHART KALYAN MATKA MATKA RESULT KALYAN MATKA TIPS SATTA MATKA MATKA COM MATKA PANA JODI TODAY BATTA SATKA MATKA PATTI JODI NUMBER MATKA RESULTS MATKA CHART MATKA JODI SATTA COM INDIA SATTA MATKA MATKA TIPS MATKA WAPKA ALL MATKA RESULT LIVE ONLINE MATKA RESULT KALYAN MATKA RESULT DPBOSS MATKA 143 MAIN MATKA KALYAN MATKA RESULTS KALYAN CHART
SATTA MATKA DPBOSS KALYAN MATKA RESULTS KALYAN MATKA MATKA RESULT KALYAN MATKA TIPS SATTA MATKA MATKA COM MATKA PANA JODI TODAY BATTA SATKA MATKA PATTI JODI NUMBER MATKA RESULTS MATKA CHART MATKA JODI SATTA COM INDIA SATTA MATKA MATKA TIPS MATKA WAPKA ALL MATKA RESULT LIVE ONLINE MATKA RESULT KALYAN MATKA RESULT DPBOSS MATKA 143 MAIN MATKA KALYAN MATKA RESULTS KALYAN CHART KALYAN CHART
Cover Story - China's Investment Leader - Dr. Alyce SUmsthrill
In World Expo 2010 Shanghai – the most visited Expo in the World History
https://www.britannica.com/event/Expo-Shanghai-2010
China’s official organizer of the Expo, CCPIT (China Council for the Promotion of International Trade https://en.ccpit.org/) has chosen Dr. Alyce Su as the Cover Person with Cover Story, in the Expo’s official magazine distributed throughout the Expo, showcasing China’s New Generation of Leaders to the World.
SATTA MATKA DPBOSS KALYAN MATKA RESULTS KALYAN CHART KALYAN MATKA MATKA RESULT KALYAN MATKA TIPS SATTA MATKA MATKA COM MATKA PANA JODI TODAY BATTA SATKA MATKA PATTI JODI NUMBER MATKA RESULTS MATKA CHART MATKA JODI SATTA COM INDIA SATTA MATKA MATKA TIPS MATKA WAPKA ALL MATKA RESULT LIVE ONLINE MATKA RESULT KALYAN MATKA RESULT DPBOSS MATKA 143 MAIN MATKA KALYAN MATKA RESULTS KALYAN CHART
63662490260Kalyan chart, satta matta matka 143, satta matka jodi fix , matka boss OTC 420, Indian Satta, India matka, matka ank, spbossmatka, online satta matka game play, live satta matka results, fix fix fix satta namber, free satta matka games, Kalyan matka jodi chart, Kalyan weekly final anl matka 420
Sustainable Logistics for Cost Reduction_ IPLTech Electric's Eco-Friendly Tra...
4.2 sustainability system design tools vezzoli 11-12 (33)
1. course System Design for Sustainability
Subject 4. Methods and tools for System Design for Sustainability
learning resource 4.2
Sustainability-orienting system design tools
carlo vezzoli
politecnico di milano . INDACO dpt. . DIS . School of design . Italy
Learning Network on Sustainability
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
2. CONTENTS
. System design orientation towards sustainability
. Sustainability Design-Orienting (SDO) toolkit
. Sustainability Interaction story-spot
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
3. [… NOT ALL SYSTEM INNOVATION ARE ECO-EFFICENT
AND/OR SOCIALLY EQUITABLE AND COHESIVE!]
> SUSTAINABLE CRITERIA AND GUIDELINES ARE
NEEDED
> METHODS AND TOOLS ARE NEEDED to orientate
design towards SUSTAINABLE system stakeholder
interactions
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
4. SUATAINABILITY SUSTAINABILITY ORIENTING DESIGN/DEVELOPMENT PROCESS
EFFECTIVENESS TOOLS/PROCESSES PRODUCT, SERVICE, SYSTEM
+ existing system evaluat.
(priorities) A
strategic analysis
system concept
concept orientation B stakeholders interactions concept
system concept product concept service concept
evaluation/visualisation C
system concept
system design
evaluation/visualisation A’ stakeholders interactions design
system design orientation B’
product design service design
system design
evaluation/visualisation C’’
system design
system engin.
evaluation/visualisation A’’
stakeholders interactions engineering
_
system engineering evaluation
B’’ product service
system engineering engineering engineering
evaluation/visualisation C’’
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
5. MSDS (main) SUSTAINABILITY ORIENTING
DESIGN TOOLS:
. Sustainability Design-Orienting toolkit (SDO)
. Sustainability Interaction Story-Spot
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
6. DESCPRIPTION OF SDS TOOLS
. aims and description
. how to use
. integration in the MSDS design process
. software and/or other supports
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
7. SUSTAINABILITY DESIGN-ORIENTING (SDO) TOOLKIT
AIM
orientate system design process
towards sustainable solutions
(environmental, socio-ethical,
economic)
WHAT IT CONSISTS OF:
a modular software toolkit supporting the following
processes:
- A: existing system qualitative analysis/prioritisation of
sustainability criteria/guidelines
- B: best practices analysis/identify sustainable existing
options
- C: generate sustainability-focused idea
- D: check/visualise sustainability
improvement/worsening of developed concept/s
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
8. SDO STRUCTURE:
SUSTAINABILITY DIMENSIONS<CRITERIA<GUIDELINES
sustainability dimensions criteria guidelines
principles distinguished areas designer-BRIDGE- addressing potential
analyst improvement
• guideline
(e.g. on-site
future generation criterion 1 production/assembly)
(e.g. transportation
• guideline
environmental reduction)
(e.g. use local resources)
environmental •…
preservation
criterion 2 •…
(e.g. system life optim.)
social equity … criteria 3-6 •…
and cohesion
socio-ethical … criteria 1-6 •…
economic
prosperity
economic … criteria 1-6 •…
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
9. ENVIRONMENTAL CRITERIA (GUIDELINES)
to suggest system eco-efficency
(stakeholder innovative interactions)
. system life optimisation
. transportation/distribution reduction
. resources reduction
. waste minimisation/valorisation
. conservation/biocompatibility
. toxic reduction
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
10. OCIO-ETHIC CRITERIA (GUIDELINES)
o suggest system social equity and cohesion
stakeholder innovative interactions)
improve employment/working conditions
increase equity/justice in relation to stakeholders
enable responsible/sustainable consumption
favour/integrate the /weak and /marginalized PROJECT
Carlo Vezzoli
Politecnico di Milano / INDACO dept. DIS / School of Design Italy
AH-DESIGN, EU
11. HOW TO USE THE SUSTAINABILITY
DESIGN-ORIENTING (SDO)?
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
12. 0. LOGIN [if requested]
to start type:
username and password
and click on OK
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
13. 0. LOAD/NEW PROJECT select a
language
type projct name to be loaded (if
existing) or created (if new)
click on OK
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
14. 0. STARTING DATA (MENÙ)
fields to be
filled
select the
sustainability
dimension to
work on and
click (e.g.
environmen.)
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
15. C. GENERATE “SUSTAINABLE IDEAS” BY BRAINSTORM.
cliclk on
set
priorities
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
16. A. ENVIRONMENTAL/SUSTAINABILITY PRIORITIES DEF.
select a define priorities: visualise one by one the
criterion No, Low, evaluation checklists
Medium, High (for each criterion)
write
answers,
one for
each
checklist,
evaluating
existing
system
(for each
criterion)
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
17. C. GENERATE “SUSTAINABLE IDEAS” BY BRAINSTORM.
cliclk on
orientate
concept
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
18. C. GENERATE “SUSTAINABLE IDEAS” BY BRAINSTORM.
select one by one the idea tables
read the guidelinees at
(one for each criterion; start
the system level
form those with high prioriitiies)
(a set for each criterion)
click on the
button and
type emerged
ideas
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
19. C. GENERATE “SUSTAINABLE IDEAS” BY BRAINSTORM.
select one by one the idea tables
read the guidelinees at the
(one for each criterion; start
system level
form those with high prioriitiies)
(a set for each criterion)
click on the
button and
type emerged
ideas
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
20. D. SUSTAINABILITY CHECK OF IN PROGRESS SYSTEM
CONCEPT
cliclk on
check
concept
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
21. D. CHECK IN PROGRESS SYSTEM CONCEPT
visualise one by one the
select a define evaluation checklists
criterion improvement (for each criterion)
radar env.
write
answers,
one for each
checklist,
comparing
concept with
existing
system
(for each
criterion)
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
22. D. VISUALISE IN PROGRESS SYSTEM CONCEPT
priority of existing system
select concept
concept improvement (e.g. Low)
check
(e.g. +)
type text
synthethising
improvement
for each IMPROVEMENT…
criterion
(sust.
dimension)
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
23. D. VISUALISE IN PROGRESS SYSTEM CONCEPT
select concept
concept improvement check
(e.g. +)
per other
sustanibility
dimension,
e.g. socio-
ethical
type text
synthethising
improvement
for each IMPROVEMENT…
criterion
(sust.
dimension)
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
24. SDO
integration in the design process STRATEGIC ANALYSIS
ANALYSIS OF THE PROJECT PROMOTERS
per each sustainability dimension ANALYSIS OF THE REFERENCE CONTEXT
increasing the detail level ANALYSIS OF THE REFERENCE STRUCTURE
ANALYSIS OF BEST PRACTICES
A: prioritises sustain. DEFINITION OF SUSTAINABILITY DESIGN PRIORITIES
criteria/guidelines
[tool: checklist/existing EXPLORING OPPORTUNITIES
IDEAS GENERATION ORIENTED TO SUSTAINABILITY
system]
DEVELEPMENT OF THE SUSTAINABILITY DESIGN
ORIENTING SCENARIO - VISIONS/CLUSTERS/IDEAS
B: analysis of sustainab.
best practices
SYSTEM CONCEPT DESIGN
[tool: checklist/case VISIONS, CLUSTERS AND IDEAS SELECTION
study; radars] SYSTEM CONCEPT DEVELOPMENT
ENV, SOCIO-ET. & ECON. CHECK/VISUALISATION
C: sustainability-focused
idea generation SYSTEM DESIGN (AND ENGIN.)
[tool: idea tables + SYSTEM DEVELOPMENT (EXECUTIVE LEVEL)
guidelines] ENV, SOCIO-ET. & ECON. CHECK/VISUALISATION
D:sustainab. improv.
check/visualisat. COMMUNICATION
MULTIMEDIA REPORTING: OVERALL QUALITIES
[tool: checklist/concept;
MULTIMEDIA REPORTING: STAINABILITY QUALITIES
radars] di Milano / INDACO dept. / DIS / School of Design / Italy
Carlo Vezzoli
Politecnico
AH-DESIGN, EU PROJECT
25. SUSTAINABILITY DESIGN-ORIENTING (SDO) TOOLKIT
SOFTWARE AND OTHER SUPPORTS:
. free use on-line at www.sdo-lens.polimi.it
. free download for local installationfrom from “tool”
section of www.lens.polimi.it
. open source and copy left (admin section to change
and/or texts, e.g. criteria, guidelines, checklists, etc.)
. languages on-line: english, italian, portughese,
chinese, spanish
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
26. SUSTAINABILITY INTERACTION STORY-SPOT
(static)
AIM:
to visualise how the
concept help achieve the
sustainability criteria
WHAT IT CONSISTS OF:
one-shot graphical
representation
containing: some images
with short texts (key
sustainability
interactions),
accompanied with notes
highlighting main
achieved sustainability
criteria
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
27. SUSTAINABILITY INTERACTION STORY-SPOT
IMAGE
BACKGROUND
COLOR
SHORT TEXT
STAKEHOLDER
IDENTIFICATION
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
28. SUSTAINABILITY INTERACTION STORY-SPOT
GREEN COLOR:
USER/CLIENT
RED COLOR:
PROVIDER
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
29. SUSTAINABILITY INTERACTION STORY-SPOT
D
ES S TE T L DS EN IO
CR P RA EA T T O -
IT CI CT D HE F
IN H A EM O
P FI IO S
E
T
A
IO C N
TO R E IC IO
IM G E IT
OF
A R
N
N
W V N S AL N
P IV TH ER
PIO IC
A
O
IT
O
F
SCR ECIF ION
A
DE SP ACT DS
CR
ER A
I NT T LE THE F
A S
TH ARD ENT O
C
W M
TO OVE EN L
PR GIV ENTA
IM A M
ON ION
IR R
NV RITE
E C
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
30. SUSTAINABILITY INTERACTION STORY-SPOT
integration in the design process STRATEGIC ANALYSIS
ANALYSIS OF THE PROJECT PROMOTERS
per each sustainability dimension ANALYSIS OF THE REFERENCE CONTEXT
increasing the detail level ANALYSIS OF THE REFERENCE STRUCTURE
ANALYSIS OF BEST PRACTICES
DEFINITION OF SUSTAINABILITY DESIGN PRIORITIES
EXPLORING OPPORTUNITIES
IDEAS GENERATION ORIENTED TO SUSTAINABILITY
DEVELEPMENT OF THE SUSTAINABILITY DESIGN
ORIENTING SCENARIO - VISIONS/CLUSTERS/IDEAS
visualise (only) key SYSTEM CONCEPT DESIGN
interactions VISIONS, CLUSTERS AND IDEAS SELECTION
underlining the SYSTEM CONCEPT DEVELOPMENT
achieved ENV, SOCIO-ET. & ECON. CHECK/VISUALISATION
sustainability criteria
SYSTEM DESIGN (AND ENGIN.)
SYSTEM DEVELOPMENT (EXECUTIVE LEVEL)
ENV, SOCIO-ET. & ECON. CHECK/VISUALISATION
COMMUNICATION
MULTIMEDIA REPORTING: OVERALL QUALITIES
Carlo Vezzoli MULTIMEDIA REPORTING: STAINABILITY QUALITIES
AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
31. SUSTAINABILITY INTERACTION STORY-SPOT
SOFTWARE AND OTHER SUPPORTS:
www.lens.polimi.it / tool >
open library of images / places
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
32. SUSTAINABILITY INTERACTION STORY-SPOT
SOFTWARE AND OTHER SUPPORTS:
www.lens.polimi.it / tool >
open library of images / people
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy
33. SUSTAINABILITY INTERACTION STORY-SPOT
SOFTWARE AND OTHER SUPPORTS:
www.lens.polimi.it / tool >
open library of images: combine images for visualszation
CONTEXT PEOPLE
IMAGES IMAGES
Carlo Vezzoli AH-DESIGN, EU PROJECT
Politecnico di Milano / INDACO dept. / DIS / School of Design / Italy