Liter of Light

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Liter of Light

Mismatches Diversity
Policies and regulations Evaluation and impact
Urban Design Quality Regulación Técnica
Promotion and production Innovation Industrialisation Management and maintenance

Main objectives of the project

Date

  • 2014:

Stakeholders

  • Promotor: World Habitat

Location

Continent: Asia
Country/Region: Philippines, Quezon City [Manila]

Description

Liter of Light uses cheap, readily available materials to provide high quality lighting to homes in poor communities. Recycled plastic bottles filled with water and a bit of bleach are fitted into the roof to provide daylighting and can be upgraded with an LED bulb, micro-solar panels and a battery to provide a low cost night lighting system. Liter of Light works with the local community to produce the lighting systems creating jobs locally. By embracing social media and the philosophy of open-source technology, the project has grown from nothing to lighting up 160,000 homes in the Philippines and has now spread around the world.

Project Description

What are its aims and objectives?

The use of plastic bottles as a way to provide indoor lighting from sunlight, developed by Alfredo Moser of Brazil in 2002, has inspired MyShelter Foundation to use the technology as a social enterprise. MyShelter Foundation (MSF) is an NGO established by social entrepreneur Illac Diaz in 2006 that aims to create sustainability and reliability through capability-building and employment-generating projects. MSF launched the Liter of Light in 2011 in the Philippines in cooperation with students from Massachusetts Institute of Technology (MIT) and Alfredo Moser. To help the idea to grow sustainably, MSF implemented a “local entrepreneur” business model whereby bottle bulbs are assembled and installed by local people, who can earn a small income from clients for their work.

Liter of Light aims to provide poor communities in the country with a cheap source of lighting that can be produced and distributed locally. It was conceived as an open-source, DIY programme that could easily be replicated by anyone around the world using readily available materials and basic carpentry/electronics skills. Rather than relying on large-scale, imported or patented technologies, the project sought to create a grassroots green lighting movement starting from the principle that anyone can and should become a solar engineer.

What context does it operate in?

Hundreds of millions of people live in informal settlements worldwide. Many of these dwellings lack windows or adequate lighting and residents often resort to kerosene, candles or inventive wiring for light, risking health and safety in the process and many simply go without. Proper electricity is not usually an option, especially in the Philippines, where twenty million Filipinos (a quarter of the population) live below the poverty line. The Philippines has the highest electricity prices in Asia and suffers constant blackouts due to outdated power plants.

The country is also vulnerable to extreme weather events resulting in loss of life and destruction of property and infrastructure.

Typhoon Haiyan, which struck in November 2013, one of the strongest tropical cyclones ever recorded, destroyed 14 million houses and pushed millions of people into further poverty. The project has been helping the rehabilitation of areas affected by the typhoon by providing training and solar bottle nightlight kits (for homes and streets) to local partners and grassroots entrepreneurs.

What are its key features?

Liter of Light (Day) is an affordable DIY lighting system that allows the sun’s rays into homes, schools and public centres for US$2 per unit. Using recycled plastic bottles, 10 ml of bleach and distilled water, the bottle is placed through galvanised steel roofs . Sunlight refracts through the bottle to light the space below with 55-watt of brightness.

In 2012, Liter of Light (Night) began by using the database of households with the daylight bottle bulbs in their roofs, offering a package of upgrading this to a 1-watt ($10/unit) or 2-watt ($15/unit) LED with micro-solar panels and battery which would give another 10 hours of light at night. With a simple circuit panel, drill and soldering, the night solar LED light is built and inserted into the already installed bulb.

The project works with women’s cooperatives to make solar nightlights from a handful of parts, including both recycled components and a new high-tech chip guaranteed to make the light last 70,000 hours. The water bottles are covered with handcrafted woven shades, providing a new outlet for local basket-weaving skills, which are otherwise no longer in demand.

Replication is done by equipping local partners or grassroots entrepreneurs with basic tools to build and install daylight bottle bulbs, and teaching them to build solar nightlight upgrades through purchasing kits from MSF or by sourcing other parts locally. Step-by-step guides on materials and installation are available online through video tutorials and social media in order to facilitate use and replication of the technology.

How is it funded?

Roche, Inc. and Pepsi provided a start-up grant of $57,000 to provide training to communities and also gave grants to help rehabilitate the areas affected by Typhoon Haiyan. As of 2014, Liter of Light is funded by dual cash flow from donations of $159,090 from Roche and $15,230 sales income. This came from the sale of finished lights or kits sold to other NGOs where MSF provided training on how to make lights.

What impact has it had?

Liter of Light began with one carpenter, one solar bottle bulb and one paid installation in one home in 2011. Within months, the project had completed 15,000 solar bottle bulb installations in 20 cities around the Philippines and had begun to inspire local initiatives around the world. To date, more than 145,000 installations in 100 cities in the Philippines have been completed.

The simple lighting technology creates local jobs, teaches green skills and empowers local communities.
Residents are able to save an average of $10 in electricity bills a month by installing the solar bottle day bulb. They can use this saving to upgrade to the night bulb (costing $10) which allows them to further save on electricity bills. This allows them to have more disposable income to pay for critical needs.

Liter of Light is uplifting the quality of life of thousands of impoverished families in the Philippines who have no access to electricity and use dangerous kerosene lamps indoors, which provide poor light, pollute and cause respiratory problems and fires. With the solar bottle bulbs, residents do their chores and activities efficiently inside a brighter home. Having affordable lighting not only improves the living environment of urban and rural poor families but also allows children to do homework and read at home.

Due to high electricity prices, local government officials could not afford to light up their streets. This was made possible by the project’s affordable solar bottle streetlamps ($60 each) which helped improve the public perception and attractiveness of neighbourhoods and addressed security issues. Many mayors around the country have also supported the start-up of local social enterprises with the project’s solar streetlights and houselight kits to alleviate the shortfall of energy supply in their towns/cities.

In partnership with the Technical Education and Skills Development Authority (TESDA), a government entity that trains young people and workers, the project has trained 572 volunteers, mostly women and disabled people and a number of local government units and non-profit organisations in building solar streetlights and houselights.

Through social media and easy replication, the movement has spread to more than 160,000 households in the Philippines and inspired local initiatives around the world lighting up 360,000 homes in over 15 countries. The project has been replicated in 15 countries (Argentina, Bangladesh, Brazil, Colombia, Egypt, India, Kenya, Mexico, Nepal, Pakistan, Peru, Spain, Switzerland, Tanzania, Uganda and Zambia) via partnerships with social enterprises that raise their own funds to run the project in their respective areas. Each country in which the project operates has developed its operations and programming at a local level but shares technical knowledge, conducts troubleshooting and crowd-sources innovations to the technology through regular coordination calls, skype, emails and social media.

Why is it innovative?

  • The project’s innovation lies in its utilisation of cheap, durable and readily available materials to produce high quality lighting enabling the urban poor to have access to an affordable, environmentally friendly, long-term alternative to electric light for use during the day and night.
  • Liter of Light provides enough initial supplies and volunteers to generate interest but its focus is on teaching a community how to manufacture and install the solar bottle bulbs, with the end goal of creating green microbusinesses.
  • By embracing social media and the philosophy of open-source technology, the project has grown from lighting up 160,000 homes in the Philippines to providing solar lighting to communities around the world.

What is the environmental impact?

Liter of Light is a zero-carbon-emitting alternative to the use of electric or hydrocarbon-burning (kerosene/gas) illumination. The materials used are readily available, e.g the reused plastic bottles, needing no additional manufacturing resources. Discarded plastic 1.5 to 2 litre bottles are reused and upcycled to a lighting system, helping reduce plastic waste. With a bit of bleach to prevent mould and just enough distilled water to fill the bottle, the solar bottle daylight bulb produces 55 watts of brightness through sun refraction and will last up to five years before being replaced.

The LED bulbs in the nightlighting system have a longer lifespan and higher energy efficiency than incandescent/fluorescent lamps.

Each daylight bulb saves 200 kilos of carbon emissions a year, and each nightlight bulb saves 350 kilos in carbon emissions a year. Compared to a kerosene lamp which emits 20 times more black carbon with 7-9 per cent of fuel burned converted into black carbon particles (black carbon is known to be a very powerful absorber of sunlight, far more than carbon dioxide).

Is it financially sustainable?

The corporate partners help to increase the impact of the project through donations which increase the number of kits that MSF is able to produce but these donations are time-limited, usually of one-three years in duration. But the income gained through sales is rising. By working with a local partner, Design Centre of the Philippines (the national institute for product design), the project now creates marketable lamps with woven designs for the solar bottle bulbs enabling them to charge a premium rate.

With simple training and tools, local partners and grassroots entrepreneurs could easily replicate and install the solar bottle bulbs earning $0.50 from clients per bottle bulb installed. Products are available in micro-stores in neighbourhoods and the project supplies kits to these stores.

Partnerships with national and local government agencies, institutes, non-profit organisations and private companies enabled the project to be replicated in towns and cities nationwide. The project aims to install 15,000 solar bottle lights in the provinces affected by Typhoon Haiyan in 2014 and to expand the programme to energy poor areas in 12 provinces by 2015.

What is the social impact?

The project is coordinated with local organisations and communities, who are given initial training. Technicians work with them by providing further training and undertaking installations. In order to lower installation costs, the local residents or organisations usually collect and provide the used materials e.g. pre-used soda bottles for the solar bottle bulbs. Residents help each other during the collection of materials and installation of solar lights.

Most of the 350 affiliates working with the production and assembly of solar night bulbs are women’s cooperatives. The project also trained disabled people and economically marginalised groups to build solar lighting products. MSF has established a training centre that conducts workshops with young people, companies and other groups interested in volunteering their time to build lights in their communities. The project also partnered with technical schools and prison facilities to equip women with marketable skills in electronics increasing their employment prospects once they complete their skills-based programmes or become reintegrated in the workforce.

Barriers

  • Using appropriate durable, leak-proof, space-filling glue is one of the main challenges. Many local groups are experimenting with different glues to find the best solution for both cost and quality; silicone-based or polyurethane glues have usually been found to work best.
  • Several villages experienced problems with the early version of the linked in batteries series where one battery drained and had to be completely replaced at the project’s expense. Through trial and error, the correct parallel connection is now used.
  • Access to knowledge on product improvement is limited as there are only a few specialists in the country. The project tries to overcome this by trial-and-error learning and seeking partnerships with specialists and training agencies. The project currently experiments with assembling solar panels out of readily available SunPower solar cells and, though a slow process, is learning how to cut the solar cells and assemble connectors by hand.

Lessons Learned

  • The Liter of Light (Night) was built with rudimentary knowledge in mobile chargers and solar lighting. It would have been better to look for partnerships earlier in the process to speed up product development.
  • Despite their benefits, there is still not much financial support (e.g. tax exemption or assistance programmes) from the government for green technologies such as solar energy.
  • A person’s life can be made dramatically better through simple solutions that are affordable, use local materials, are easily replicable and generate sources of income.
  • The use of the internet and social media for sharing instructions/information about the project and for the coordination with partners has proven to be very successful to disseminate ideas.

Evaluation

The project has a database of the families with the daylight system and families are advised to keep a record of their electricity bills to monitor their savings. After two to three months of installation, the project revisits the families, surveys them about their energy savings and also offers them a package to upgrade to the nightlight system. MSF has not yet carried out an evaluation of the whole Liter of Light project in the Philippines.

Transfer

MSF began with one carpenter, one solar bottle bulb and one paid installation in one home in 2011. Within months, the project completed 15,000 solar bottle bulb installations in 20 cities around the Philippines and began to inspire local initiatives around the world. To date, more than 145,000 installations in 100 cities in the Philippines have been completed. The project aims to install 15,000 solar bottle lights in the provinces affected by Typhoon Haiyan – Cebu, Iloilo and Leyte – in 2014 and to expand the programme to energy poor areas in 12 provinces by 2015.
Local and National: MSF’s work and the success of the Liter of Light have been possible through partnerships with national and local government agencies, institutes, non-profit orgs and private companies. These partnerships enable the project to be replicated in towns and cities nationwide.

International: Liter of Light is a network of partners sharing sponsors, best practices, and successes (or failure) in fundraising and community implementation. The project has been replicated in 15 countries (Argentina, Bangladesh, Brazil, Colombia, Egypt, India, Kenya, Mexico, Nepal, Pakistan, Peru, Spain, Switzerland, Tanzania, Uganda and Zambia) via partnerships with social enterprises that raise their own funds to run the project in their respective areas. Some countries have made small adaptations to the design. In countries where battery or solar cells are unavailable, MSF ships them these materials with samples and instructions and shares with them information about the suppliers.

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Renewable Energy for Farmers

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Renewable Energy for Farmers

Policies and regulations

Main objectives of the project

Date

  • 2013: Finalista

Stakeholders

  • Promotor: World Habitat

Location

Continent: Asia
City: Jinma
Country/Region: China

Description

Continuity of an integrated planning approach over the last 30 years has led to the development of Freiburg as a leading exemplar of sustainable living in a compact car-lite city. Two urban extensions – Vauban and Rieselfeld – provide homes for 17,500 people and have been developed using low carbon technologies, self-build, and with excellent mass transit systems. The intention was to develop these districts to high environmental standards as well as ensuring that they had strong social structures and communities. A key success factor in Freiburg’s approach has been its focus on citizen participation and active democracy, enabling it to engage a wide range of stakeholders in its radical urban planning approach.

 

Project Description

Aims and Objectives

To create an environmentally and socially sustainable city through enlightened planning and pioneering use of renewable energy systems.

Context

Freiburg is an ancient university city with a population of 220,000 located in southern Germany near the Swiss and French borders. It is a rich city with a GDP per capita 11 per cent above the European average and has the highest concentration of sunshine in Germany, with more than 1,700 hours per year. Urban planning and development have always had a special impact on Freiburg. After the devastating destructions of the World War II and with 85 per cent of the inner city destroyed, the programmatic corner stones for Freiburg’s exemplary spatial and settlement development were laid out during the post-war years. The city was rebuilt from the 1950s onwards, taking note of traditional urban patterns and cultural heritage, but with a focus on sustainable development. In the 1960s, the crucial decision was made to hold on to the tram network as the backbone of urban development in Freiburg and consequently, to expand it accordingly. In addition to this, the “five fingers” concept was developed for the distribution of green spaces to clearly separate open zone from building zones. These elements – the tram as well as the division into green areas and building areas – are still the guiding aspects for Freiburg’s urban development today.

The Planning Department has long been a key department in the municipality and has always been progressive, introducing pedestrianisation, for example, in the city centre in 1949, and refusing to build shopping malls outside of the city. There is a stable political system, with the Green Party having dominance for the last decade. With up to 35 per cent of the overall city vote, the Green Party is the strongest in any major German city.

Key features

The process of sustainable city planning started in the 1970s when the citizens of Freiburg did not want to accept a planned nuclear power station. In 1986, with the nuclear catastrophe at Chernobyl fresh in their minds, Freiburg’s municipal council decided to have a future-oriented energy policy based on renewable resources wherever possible. This led to the development of Freiburg as a global first-rank model of sustainable urban life. It is a compact city development with car-lite systems.

Freiburg has a strong orientation to walking, bicycling, and public transport, with car-free areas and high levels of accessibility for people of all ages. It seeks to be ‘a city of short distances’. This involves three major strategies: restricting the use of cars in the city, providing effective transport alternatives to the car and regulating land-use to prevent sprawl. Two-thirds of Freiburg’s land area is devoted to green uses. Just 32 per cent is used for urban development, including all transportation. Forests take up 42 per cent, while 27 per cent of land is used for agriculture, recreation, water protection, etc.

As a result of the Chernobyl catastrophe in 1986, Freiburg made the saving of resources the most vital factor for all future planning which included the clear prioritisation of public transport over individual traffic and goals to reduce energy consumption of buildings and realise future planning areas through self-financing schemes. The two major urban extensions Vauban and Rieselfeld were developed under these guidelines. Both developments have been built on brownfield sites – Vauban was on the site of a former military barracks and Rieselfeld on a sewage farm. Vauban is a neighbourhood of 5,500 inhabitants, located four km south of Freiburg town centre and is estimated to be one of the largest solar districts in Europe. All houses in Vauban are built to a low-energy consumption standard – maximum 65 kWh/m2/year (the average energy standard for new-build German houses is about 100 kWh/m2/year, 200 kWh/m2/year for older houses). Low-carbon technologies include heating from a combined heat and power station, solar collectors and photovoltaics. Self-build is used extensively in Rieselfeld, an urban extension for 12,500 people started in 1992. Direct mass transit links were created to the city centre. The current land-use plan for the city focuses on developing within the current city limits to optimise the existing infrastructure. Although the new concentration is on interior development, Freiburg’s population figures are still climbing and the number of jobs (mainly in the field of universities and of high-ranking scientific facilities) is also constantly increasing.

Freiburg’s success owes much to its democratic strength. Three key factors are direct citizen participation, dynamic planning, and consensus. Active democracy was the first step when citizens worked to oppose the planned nuclear power plant. This early activism has evolved so that citizens are directly involved in land-use planning, the city budget, technical expertise committees, developing public information on sustainability, and as shareholders in local renewable energy providers (e.g. solar, wind). The broad base of involved citizens is credited for Freiburg’s development of a consensus on sustainable development across the major stakeholders. This has enabled goals to be pursued steadily over decades.

Covering costs

The usual sources of income available to the city authorities have been used to deliver this work. The Vauban and Rieselfeld developments were built without any contribution from the city budget. The income received from selling the serviced plots of land to co-operatives, individuals and small builders covered the costs of the land and all the necessary physical and social infrastructure that the city provided.

WHA2013_GERMANY4

Impact

  • The standard of living in Freiburg is recognised as one of the highest in Germany, not only due to the natural climate and landscape advantages, but also to the active engagement of the citizens in decision making and sustainable city living.
  • The citizens of Freiburg have a well-developed understanding of environmental issues, which affects their lifestyle choices.
  • As a national exemplar of sustainable urban planning, ideas developed here have been used in countries around the world.
  • The project itself involves the development of local government planning policies, which have also been used in other cities. Freiburg is very well known throughout Germany for its sustainable approaches, which have influenced both regional and national governments. Germany now has some of the strongest environmental protection policies in Europe.

 

Why is it innovative?

  • Development of an integrated planning approach to develop an environmentally sustainable pattern of city living thirty years ago, before such approaches were widely recognised.
  • Encouragement of citizen engagement in the decision making for the city.
  • Recognition of the importance of an integrated mass transit system throughout the city in creating a ‘city of short distances’, enabling high levels of public transport use, cycling and walking.

 

What is the environmental impact?

Low-energy building is obligatory in the Vauban district; zero-energy and energy-plus building and the application of solar technology are standard. There are over 50 passive houses and at least 100 units with ‘plus energy’, which is estimated to be one of the largest ‘solar districts’ in Europe.

Freiburg is a centre for innovative sustainable energy generation – solar, wind, hydropower, co-generation and district energy. Extensive use of permeable ground surfaces, bio-swales (vegetated areas designed to attenuate and treat rainwater runoff) and green roofs helps save water. Property owners are charged a storm water fee according to the percentage of their land that is permeable.

The Freiburg Climate Protection Strategy 2030 provides a clear focus and wide-ranging framework for local action in key areas identified for effective GHG emissions reduction. The city’s focus is now on achieving the new target – a 40 per cent reduction by 2030 on the baseline year of 1992 – with the support of an action plan, a structure established to support the implementation process and engaging its citizens.

Vauban is virtually car-free with over 70 per cent of households not owning a car. Car owners have to purchase a parking space in a multi-storey car park on the outskirts of Vauban for US$23,350, plus a monthly service charge. Transportation planners make use of five mechanisms to encourage healthy and sustainable transportation modes – extension of the public transportation network; traffic restraint; channelling individual motorised vehicle traffic; parking space management; and promotion of cycling. Today there are 30km of tramway network, which is connected to 168km of city bus routes as well as to the regional railway system. Seventy per cent of the population lives within 500m of a tram stop.

 

Is it financially sustainable?

The stable political system, with a strong Green Party, is likely to ensure the continuity of funding sustainability in the city. The city takes a hard-headed commercial approach to development. Loans have to be repaid, grants are limited and only five per cent of the housing in Rieselfeld is funded by the municipality. Expenditure on roads is minimised, most of the streets are only four metres wide and limited to car use only. There is a betterment levy, with the city authorities taking one third of the increase in value on the sale of open land. Land for building is sold off in small plots (190 to 210m2) with limits on the number of plots any one group can buy, thus favouring small builders and co-operative groups. In Vauban, less than 30 per cent of the land area was built up by large developers, 70 per cent of the plots were sold to small builders and co-operatives, resulting in 175 different building projects.

Homes are reasonably affordable in the city, reflecting partly the German housing market with its low rate of house-price inflation. There is a high proportion of affordable rental housing (80 per cent of stock). Co-operative building groups help to keep home ownership affordable with building costs much lower than buildings with similar quality bought ready from a development company.

The city is one of the wealthier cities in Germany and it has created a specialised service sector relating to renewable technologies. The university is a leading institution for renewable energy research, with many manufacturing off-shoots. A variety of small eco-focussed businesses and eco-tourism have emerged. For example, Genova, a private enterprise building co-operative is pursuing ecological concepts of solar installations for publicly co-financed housing.

 

What is the social impact?

WHA2013_GERMANY4Freiburg has long had an emphasis on citizen engagement. There are many opportunities for citizens to be engaged within their communities and in city-wide campaigns for environmental improvement. When the two new urban areas were developed local community forums were established which acted as joint place promoters, offering critical support to the city council and through its energy and activism, encouraging it to move forwards.

The new urban extensions in the city have a family friendly character, with the city’s emphasis on being a ‘city of short distances’. There are flourishing community centres where people can hold meetings, organise entertainment, have a meal etc. Community participation in the city’s Land Use Plan involved 19 working groups of technical officers and local communities.
In Vauban, the city used the principles of the community architecture movement, encouraging groups working together with their own architect to develop a block of buildings around a defined open space. In Rieselfeld there was a strong emphasis on self-build and the municipality provided serviced sites, enabling people to have homes costing up to 25 per cent less. Over 100 different builders were involved (20 per cent were co-operatives). Co-operative self-build improves the skills of those involved in a wide range of areas. Wide-scale development of eco-based industries has developed specialist skills in academia, services and manufacturing.

Emphasis on cycling and walking rather than car use, the availability of local produce and the development of close community networks all serve to improve the health and safety of local people. The car-lite living patterns, especially in Vauban and Rieselfeld, enable children to play safely outside of the home. The emphasis on social sustainability in all aspects of life has ensured a reduction in social inequalities. The housing development process has led to a wide range of designs and development and it is difficult to gauge people’s wealth from the outside of their house.

In 2008 the city of Freiburg used meetings as well as online discussions about participatory budgeting with the use of a budget simulator, enabling citizens to better assess the impacts of their choices. The results of this deliberative process were then collaboratively aggregated and edited by the participants of the process themselves.

 

Barriers

Initial resistance came in the early days from many of the city’s population, especially those who lived in the suburbs, who did not want to reduce their dependency on the car and wished to have out-of-town shopping facilities. There was also strong resistance coming from the developers who wished to have a free hand in the development of the city. Both were overcome by having a clear strategy for the development of the city and making this clear to developers and by convincing and inspiring the people that this was a good choice for the city through engagement in the discussion and decision-making process.

 

Lessons Learned

  • Implement controversial policies in stages, choosing projects that everyone agrees on first.
  • Keep plans flexible and adaptable over time to allow for changing conditions.
  • Policies should include both sticks and carrots to encourage people to change behaviour, i.e. making parking more expensive and difficult, but making public transport, cycling and walking much easier.
  • Organise land use and transportation on an integrated basis to ensure that travel distances can be kept short.
  • Involving the citizens should be an integral part of policy development and implementation.
  • Support from regional and national government is vital in helping local policies to work.
  • Long-term goals need to be pursued on a consistent basis.
  • City leaders have to be committed to long-term engagement, but always with the support and engagement of the people.
  • Be creative and tactical in working with a wide range of different investors and other actors.
  • Be proud of the achievements and celebrate them with the citizens.
  • Continuity is vital.

 

Evaluation

Active monitoring is carried out across a range of city activities to ensure that the Freiburg Climate Protection Strategy 2030 is on target to achieve the planned GHG emission reductions of 40 per cent by 2030 on the baseline year of 1992.

 

Transfer

Freiburg has long been an exemplar par excellence for urban planners wishing to look for models of sustainable urban development. There is widespread media coverage of the pioneering work being done in Freiburg, as well as citation in academic literature. The city and its planning system have received many plaudits and awards over the last 30 years. Some more recent ones include the European City of the Year 2010 (Academy of Urbanism), the European Green Capital (Finalist 2009) and the Federal Capital for Climate Protection 2010.

The city has established the Freiburg Charter with a set of 12 principles to guide planning and development if a sustainable city is to be achieved. This is being widely discussed and used by planning authorities around the world, with many presentations and international congresses on the approach, as well as academic and professional visitors coming to learn directly how to establish a similar charter in their own situations and learn from its numerous good practice examples, including energy, transport, buildings and waste management.

Local towns and cities have adopted many of the examples set by Freiburg. Other German cities continue to learn from the experience at Freiburg, with both the planning professionals as well as city leaders seeking to develop similar approaches. The Freiburg model has spread to cities in neighbouring countries, including Mulhouse in France and Basel in Switzerland, as well as further afield. Freiburg is twinned with nine cities around the world and it continues to have close connections with them, providing support and planning guidance.

Authors:

A Report on Sanitation Technologies for Transforming Urban Settlements

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A Report on Sanitation Technologies for Transforming Urban Settlements

Mismatches
Promotion and production

Main objectives of the project

Date

  • 2022:

Stakeholders

  • Aga Khan Agency for Habitat (AKAH )

Location

Continent: Asia
City: Chhindwara
Country/Region: India

Description

A compendium of proven urban sanitation technical solutions for three different settlement types -suburban ward, transforming rural settlement, and greenfield site- in India.
The study assesses the strengths, weaknesses, and opportunities in urban sanitation technologies in India and provides a decision-making support tool for local administration, community action groups and other stakeholders to identify appropriate technologies for various settlement types. The compendium examines various sanitation systems and technologies and provides a decision framework and standards for planners and implementers. Case studies demonstrate the methodology applied to three different settlement typologies.

Links

Authors: