redesigning refugee camps

 

inspired by the ZERI concept

 

 

input from Gunter Pauli

to the charrette organized by RMI in Santa Barbara

February 10-14, 2002

 

 

Background

 

         Humanity faces numerous challenges. But one of the most daunting is how to deal with man-made disasters which lead to millions of refugees fleeing war-torn regions of the world. Whereas the United Nations High Commission for Refugees (UNHCR) since decades has a mandate to respond to the immediate needs of those crossing borders in search of safety, time may have come to have a fresh look. The images of people holding on to a few possessions have flashed so often across TV-screens, but few realize the harsh realities that both refugees and  international organizations face in an attempt to respond to the basic needs.

 

         Ideally, refugees are welcomed in the prosperous neighboring nations, given safe passage, and secured a temporary home so that repatriation can be orderly organized rather sooner than later. The hard facts are the opposite indeed. The Jewish communities living in Europe had to flee from the Nazis, and suffered centuries of hatred. They had to survive in hostile environments and fled Europe en masse when fascism ruled the Old Continent. They found peace when Israel was established. Millions of Palestinian refugees have been locked up in camps for four decades, now entering a third generation of children who are faced with hatred and barbed wires while they continue to dream of returning to their grandfather’s land. Millions of Colombians have fled the rural violence which has erupted over cocaine and herion farming, and the list of disasters is long indeed. Actually few ever reach the main page of our newspaper. The case of the Afghan refugees who have been fleeing their nation a few decades ago, is harsh and stands vivid before our eyes. One wonders how any of these persons who have suffered so much and had to leave all behind could survive these atrocious circumstances, keeping their faith, and not turn to violence as a unique means of expressing frustration over their lost ones, and showing anger over the world’s neglect. Actually, the large majority of refugees have demonstrated impressive restraint most of us in the industrialized world would not be capable of.

 

         The cause of the refugees must incite us to think different. We know all too well that whatever we attempt in such a crisis situation it is insufficient. But we also know that resignation to the fact that what we do is insufficient, will only increase suffering. We must ask ourselves the question how can we assist? Since a reality check confirms us that the majority of refugees do not return home, could we not turn to the well-known adagio: “If you give a fish, they will not be hungry for a day; if you teach them how to fish, they will have food forever”. That is true as long as the refugees get permission to fish, and this only holds as long as there is enough fish to catch. As soon as thousands of refugees start to overfish, then the local population and the refugees will depend on someone giving them a fish to survive. The Chinese proverb is then better expanded to “If you learn how the Five Kingdoms of Nature work, then there will never be hunger”.

 

         The ZERI concept may offer a basis of inspiration on how to deal with these complex challenges of refugees who are most of the time not really welcome in their temporary homeland. The ZERI approach builds on two considerations : (1) let us start with what the people have, and (2) let us design jointly a system in co-evolution with nature so that their presence and integration can be socially, ecologically and economically sustainable. The purpose of this article is to serve as a creative input to this debate.

 

Starting with what is available

 

         The mere idea that the design of a refugee camp starts with what people have can easily be described as an oxymoron: it simply does not exist. The mere fact that these people are refugees seems to confirm that there is nothing. They left everything behind and miraculously  survived hardship and arrive with miserable clothing, a few personal belongings, a picture of their loved ones, perhaps a goat and a bicycle. It is true, that on one hand one can see it this way. On the other hand, refugees have a tremendous courage. In order to survive war or in some cases natural disasters, they decided to flee, take their lives in their hands and jump into the unknown. Their will to survive is a tremendous asset.

 

         People who have chosen to survive and have been prepared to give up their home and sometimes even their loved ones, are prepared to do anything that it takes to get back what they lost: including hard work, taking risks and going beyond the reasonable. The mere idea that the few who succeeded in their flight would then readily give up their autonomy and submit to “aid”, whereby a simple card certifies that you are a UNCHR-refugee seems a contradiction to what most psychologists would suggest. These people carried their lives in their hands, trust only themselves and those who have successfully lead them out of disaster.

 

         The first asset is therefore of course the people and their mind set. They are geared towards survival. But also in view of what they had to go through to survive, one cannot expect simple surrender to a new regime of aid and order, or more, expect these character-rich individuals to ever change anything that they know and could rely on for their survival. Change is self-evident. This leads us to believe that the opportunity to design a refugee camp on the basis of these premises, will lead to an approach which may be able to respond sustainably to the basic needs.

 

         This approach is not a criticism of international organizations, the United Nations and the NGOs, which are doing their very best to assist and alliviate the suffering. It is only an attempt to translate this basic concept of sustainable design into one of the most fragile and needed interventions humanity must lend to those who are refugees. It starts from the hypotheses that (1) we start from what they have, that (2) there is always room for improvement, and (3) sometimes improvement comes from those who are “out of the box”.

 

The long list of needs

         Refugees have a long list of needs. Water, food, sanitation and health care are top priorities (Table 1). Shelter and energy are part of an immediate second set. Security comes as a rapid third package. Over the long term, education and jobs cannot be neglected. This is a vast task for anyone who has decided to dedicate time and effort to respond to refugees’ needs. Consider for a moment the magnitude of the challenge: the camps to be set up, on sites approved by the host nation, must be operational in no time, and must accomodate often 10,000 sometimes even 500,000 people in a matter of weeks. It clearly is a scary thought to even pretend you can do any of this. Mistakes will be made, even when avoided at all cost. But the speed with which decisions have to be made implies that the mere strategic approach is going to be a military one : do what you know works, and do it fast.

 

         But apart from the long list of needs of the refugees, there is also a long list of needs of the local population. It may be perceived by the communities were the camps are established, that the refugees get preferential treatment: free food and water, sanitation and quality health care at no cost. The refugees will encroach on a fragile socio-economic system. This could rapidly deteriote the ecosystem, and a highly stressful relationship between the two communities is more the rule than an exception.

 

Turning value out of hidden assets

         If there were only one lake, then the addition of 100,000 fisherman will kill of all fish in no time. But if we combine the assets of the refugees, i.e. their desire to survive with the hidden assets of the system of the host region where they arrived, then it may be possible to start build a strategy which is able to respond to the needs of both communities, with more chances of success, at greater levels of efficiency, at lower cost. Eventually, the whole initiative could become self-sustaining.

 

         The ZERI concept always starts from what is there, and reviews the opportunities on the basis of insights in species of the “5 Kingdoms of Nature” which are always locally present. Even in the desert, and even on eroded land, even in the high mountain ranges, there are always bacteria, algae, fungi, plants and animals. It is the dynamic relationships amongst all five, especially how one kingdom converts the waste of another in food for itself, leaving its waste behind as a nutrient for a member of yet another kingdom. The dynamic matrix of relations which emerges is an inspiration on how to design any new activity. Any initiative which relies on these core principles has the chance to become sustainable and could even unleash a development process which  maintains a co-evolutionary path with the dynamics of the local ecosystem.

 

Water first

         Potable water and a continuous supply of water for washing and local needs is indispensable. Whereas watertanks are moved in, by truck or even dropped from the air, is a first logical measure which does not threaten the perhaps limited water resources available to the local population, a few ideas immediately come to mind: condensation water and closed loop well/aquifer pumping.

 

         Water is a precondition for survival. Contaminated water will cause diseases, including typhoid, hepatitis and cholera. Therefore water must be sanitized. An untapped and rich source of water is the humidity in the air. While there are no catchment systems in place which secure an abundant supply to meet the 10 liters per person per day minimum, condensation water can quickly complement the resources needed to get local farming of many kinds going. The idea is simple, if a truck arrives, instead of just opening the valve, and fill up the buckets, a series of black water tubes are attached to the tank, securing a distribution based on gravity. This produces foreseeable results. Along the tubes laying in rows on the dry ground, condensation will quickly lead to the growing of some grasses. This humidity could lead to a basis for some small garden projects, which as soon as compost arrives, from other processes described below, then there is a minimum basis for farming.

 

         One issue of conflict between the local population and the refugees is access to ground water, either surface wells or aquifers. The local population will object to excessive pumping of their dwindling ground water resources. And if this water is accessed, it could certainly become a point of contention even when it is not overused. Sometimes the piece of land alloted by the local government does not have potable water in the ground, it may be salty, over-mineralized and thus unsuitable for drinking. In either case, the water could be pumped up from one side, run through these black pipes, cause a condensation and quickly flow back into the ground. Since contaminated water does not actually leave the pipes, but rather only provides a mechanism for condensation, it serves a purpose which was not noted before. A hidden asset has been unearthed. This is an interesting tool, especially when the point of release into the aquifer is lower than the point of entry, then there will be an unlimited flow thanks to the physics of pressure known under the law of communicating vessels.

 

         This technique is simple to implement, takes only a couple hours to put into operation, and could even lead to a small generator of energy by adding a microturbine to the pipe. Now the water is already a producer of energy, sufficient perhaps to light a lamp at night, one of the simplest ways to offer a sense of security to the people in the camps. The creation of septic tanks and the construction of small digesters will further ensure that there are multiple resources of water for reuse in the community.

 

Water sanitation and digestors

         Water sanitation is mainly guaranteed through chlorinating  water. There is insufficient energy to boil water. Ozone or ultra-violet treatments are too expensive and fragile to operate under such harsh conditions. The most obvious solution would be a simple three stage anaerobic digestor. The advantage of this three stage system is that it guarantees the elimination of pathogens from human waste, which could survive in a two stage one which is the standard on the market. When refugees arrive, or generally prior to their arrival the main work on site is the construction of latrines, which is basically moving earth and digging holes with heavy duty equipment. While this is a pragmatic approach, seldom time and money is available to provide the lining so that - just in case this sanitary solution were to necesary long term option - does not risk contaminating the ground water.

 

         The following approach may suggest a more flexible solution. Using simple plastics and reinformcements. Small digesters can be installed which could serve say 4 households. These small digesters can be installed under the supervision of one local expert for every four families. Once the family understands the concepts, knows the construction technique and starts mastering the operations thanks to a hands-on experience how to maintain the system, they can assist others doing the same. The first four families have one, once they know enough, they can assist another four families (i.e. 16 families), and another four (i.e. 64, 256 then 1,024 ....), and as such the necessary experience can be shared on “an exponential basis”.

 

         The advantages of a decentralized system is that this plastic-based digestor is fast to install, taking just a couple hours, opposed to a cement construction which would take weeks. The concept per family of four avoid a major investment in tubes and sewage. It is modular, and as more people arrive, more systems are set-up, and if they were ever to be dismantled, then there is no heavy duty equipment needed. The content is sanitized through a retention time of 21 days, and the by-products are biogas which can be used to light a few lamps, and even to cook a warm meal a day.

 

         A biodigestor operating on human waste only will not have sufficient organic content to generate sufficient energy for light and cooking. But if there are central shower systems with small ponds and wetlands where water hyacinth would thrive, then the excess plants could be added to the digestor boosting biogas production.

 

         Once this digester is in place, the processing of waste could expand to the inclusion of some animal waste, perhaps even some additional biomass from farming and food residues. Apart from generating biogas, this unit will also generate a slurry which may be of the right type to secure further mineralization with algae. These algae are nutritious and are welcome additives to any animal feed that would be available locally. The residual water which is finally recovered at a rate of 1 to 5, is then useful for all types of secondary water use, including irrigation of the small gardens. Taking care of the toilets, leads us to additional water sources.

 

         One of the simple techniques for the efficient distribution of water  is actually packaging it in small bags. The purpose is to save more water by making it available through polipropylene (PP) bags. If one were to use bottles, then massive waste is generated (PET + PP). If on the other hand a small water bagging operation were operated locally, consumption would be much lower, wastage would be nearly eliminated, and most important now the plastic (PP) can be reused. Whereas the PET packaging system claims that containers are recyclable, these are in fact not easy to recycle. First the cap is of PP which can be removed easily, though the ring holder causes a problem. It is a tricky process to remove paper from the plastic and this job is not ideal for a refugee camp. The alternative option is bagging with PP with the simple condition that who ever wants a new bag, must bring the old bag back.

 

         PP is an excellent quality plastic but too expensive, even for the industrialized world. That why its use is limited to only the cap only. But if we were to secure a full recovery of the plastic, which never has to be separated, then the PP can be recovered and used as a raw material for pipes ... which are in abundant demand locally anyway. This program has been tested and implemented with success in Las Gaviotas (Vichada, Colombia).

 

         Whereas these ideas do not suggest that it can eliminate the need of water, it can certainly offer an avenue which permits the generation of additional water, and increase the effective use of the available resources, relying on simple technologies. Some will save water, and generate activities which make sense, and reduce overall consumption while increasing the amount available for input. These processes even generate a few jobs, start a couple industrial activities, modest and small, but considering that the refugees will have learned how to operate this, it will be of use nearly anywhere in the world.

 

Producing food sustainably

         It does not happen very often that a site provided by the host government offers rich soil for farming. It is more the rule than the exception that the area is characterized by soil erosion, deforestation, and water shortage. The site will be fenced and the residents are often restricted from moving outside the camp even when the international convention on refugees foresees that all residents of that area have equal freedom to move around. Ideally, each family should have 200 to 300 sqm available. Most of the time, it is not even half of that amount.

 

         To imagine that under these circumstances, and with very small plots it would ever be possible to farm veggies and hold cattle is a pipe dream. It will never work. But, if one is prepared to trigger a process whereby one is not in the first place searching for food from animals and plants as is usually the case, but rather from two other kingdoms of nature which are in abundance and so much faster in production, i.e. mushrooms and algae, then a successful alternative can be seeded.

 

         Mushrooms are remarkable indeed. Some species only need 10 days between inoculation and fruiting, which is problably the fastest turnaround of a waste into a rich source of essential amino acids, a core component in the food intake. If there were a bit of planning,  packaging materials are shipped to remote places like the camps and  could become ideal for mushroom farming. Cardboard is one, some local grasses, but even hair and finger nails are readily degraded by mushrooms into nutrients. And if the water hyacinths start thriving on the water treatment systems, one could even have a miracle occur. As has been demonstrated by Mrs. Margaret Tagwira, in a peer reviewed article in 1997, ‘100 lbs of dried water hyacinth could produce of to 240 lbs of fresh mushrooms[1].

 

         Mushrooms are not only nutritious, several ones are recognized as medicinal. Unlike most medicines known to modern pharmacologies, mushrooms do not attempt to kill a virus or eliminate a toxin, these merely strengthen the immune system thus rendering the detrimental activities of toxins less or ineffective. A nutrients’ base which is complemented with the terpinoids and polysaccharide proteins (PSP) will strengthen the immune system against virus. This reduces the need for antibiotics. The farming of mushrooms is thus more than just the provision of healthy food, converting some waste into an edible product, it can also be considered preventive medicine. This is another example of how it is possible to combine very diverse agendas into one system.

 

         There are numerous techniques to prepare a substrate for farming. Traditionally one has to sterilize or pasteurize, which requires a large energy input and some capital investments. But as has been demonstrated on remote sites in Africa and Asia, several mushroom species are quite content with a substrate which is fermented. Since this would bring the pH down, competing mirco-organisms are eliminated, leaving a solid basis for mushroom enzymes to degrade the substrate.

 

Algae next to mushrooms

         But while mushrooms are attractive, and quickly taken as a core component of the food supply, algae have also demonstrated their capability to respond to basic people’s needs. Algae are often associated with environmental problems caused by the blue-green algae. But the generation of algae in water which contains already a 60% mineralized organic matter, like the one pouring out of a digester, could produce a wide variety of algae, and aquatic plants such as spirulina, lemna and chlorella. These are notoriously nutritious. Whereas spirulina could be used as a food addititve, in particular in fighting malnutrition amongst children, the other biota will be ideal as a feed supplement for animals, from cattle, goats, chickens and turkeys, to pigs.

 

         All these animals of course generate manure, which should not be laying around in such an intense environment. These excrements could best be channeled into digestors where they are prized for their capacity to further enhance the production of biogas. The five kingdoms of nature will slowly but steadily combine their efforts to alleviate the suffering of these refugees. 

 

Provding more feed than what is available

         Keeping herds has been a typical problem at refugee camps. The local food base is certainly not enough to respond to the feed required of the animals, let alone of the people. The lack of space has exacerbated the problem, which may lead to the decision to prohibit any type of animal husbandry in the camp. This would be a pitty, since keeping animals could be a core component in bringing refugees to a lower degree of dependency on donor aid. The soil will likely suffer from overgrazing, and if this has not already happened, it would occur quickly once animals are permitted unless some alternative feed options are taken into account. One such option is the thinning of the local forests through the harvesting of small diameter woods.

 

         Any forest has large amounts of small diameter wood. This is defined in North America as any tree with a diameter less than 6 inches. As a matter of safety it makes sense to remove some small diameter wood which is a major cause of forest fires. But this wood should not be used as a fuel, it should give rise to a rich cascade of valuable products. The first one would be the production of animal feed from the foliage through an intensive fungal treatment. The goal here is not to farm mushrooms, the main purpose is to convert this foliage into a rich and easy to digest feed. Leaves and twigs are often devoured by sheep and goats, though digestion is not so easy and the nutrient content is limited. If one were to first treat this biomass with fungi, from the local biodiversity made available through tissue culture, then lignin and cellulose would be broken down. Even better, the substrate will be enriched with fungal proteins which will include several of the essential amino acids (e.g. lysine) that are growth stimulants for animals.

 

         When the ecosystem is under stress, it is necessary to secure that people have the right reflexes. If there is not enough feed, then overgrazing may result. Instead of running the risk of overgrazing, the opportunity of converting grasses, leaves and twiggs into rich animal feed will not only divert attention, but will permit to respond to local needs with a productivity which is a multiple of what is now actually digested. When refugees learn that grasses which have been treated with fungus are actually richer than mere grasses, then this “natural intelligence” will remain with them forever.

 

Rebuilding topsoil

         Overgrazing by animals is one side of the problem. A second side is soil erosion. Once the grasses have lost their grip on topsoil, there may well be a loss of moisture, and the subsequent degradation of  insect, algae and fungal activity leading to widespread soil erosion. This land will be barren sooner than one can ever imagine. Desertification is looming. Though in some cases, and this needs to be confirmed by geologists, there is a way around. Better even, in some circumstances it will be possible to actually unleash a series of micro-organisms’ activities in that top soil. As a result top soil is not only warranted to stay, it is even guaranteed to be rebuilt.

 

         Several rocks are rich in minerals, especially those needed to build up top soil. After all, top soil has been created through the erosion of rocks, which accumulated in the ecosystem thanks to a rich mineral  diversity. A wealth in minerals stimulates a rich mix of micro-organisms. Take the case of basalt, present in most mountainous regions of the world. Basalt is rich in magnesium, the core mineral in chlorophyll. If basalt were around, it should be granulated and depending on the thickness of the present layer of soil, it should be put on as a dust when there is top soil left, or granules of maximum a quarter inch diameter when there is little left over. This will subsequently catalyze a major dynamic development leading to up to one yard of top soil over a decade.

 

         Granted, refugees cannot wait for ten years. But, by the same token the local population will consider the situation much different if there were notable evidence that there is no pillaging of the soil, no massive erosion. If after the first 2 years signs are apparent that the top soil is not degraded to the bone, the host nation will be surprised. Soil fertility has been over-simplified to “NPK”, refering to the nitrogen, potassium and calcium content of the soil as defined by the 19th century scientists Justus von Liebig, the founder of the fertilizing industry. Since magnesium is at the core of a plant’s capacity to capture energy from the sun, this process could once more provide a fertile learning ground for refugees who after having been exposed to this practice would be in an ideal position to actually bring this top soil rebuilding technique back home wherever welcome.

 

From rocks to more rocks

         If the terrain where the refugees are granted the right to stay is rocky, and often this is the case, then these rocks may not be suitable for repleneshing top soil, but are rather an outstanding source to build a series of “rock ovens”. The development of some local activities is gratifying and necessary at the same time. The construction of an oven to bake bread of whatever style, would be an ideal pasttime, while responding to a sheer need. If the camp has 600 or 10,000 persons, more than one bakery is evidently required. The construction of simple rock ovens, like the ones which witnessed at some US rock concerts designed, built and operated by George Schenk could be quickly introduced. Once more, rocks are rocks but they do have a good use, and the technique of operating a rock oven is one that will always remain with anyone who learned this. It provides food, but it also offers the insights in building techniques for which no cement, no steel and not even plastics are needed. A tool for life has been offered and will be useful in many new circumstances, at the camp or at home. How many can claim they learned how to make over-fresh flatbreads at a refugee camp?

 

Ovens and fuel

         The challenge may not be to just build the rock ovens, the major question is how to fuel these. The idea of relying on wood is likely to be self-defeating. Areal pictures of regions around refugee camps all too often demonstrate massive deforestation. The supply of diesel, propane gas or even solar panels is not always practical. Once again, there is a desire to search for a much more efficient source of energy which is locally available, and which serves more than one purpose. As the ZERI methodology prescribes: the waste of one activity must be an input for another one.

 

         If there are surrounding forests, then the foliage of small timber wood can be harvested for its now well-known potential conversion to animal feed. But, wood itself will not be used as a fuel, it would rather be converted to charcaol. Charcoal has a bad image in this era of climate change. Indeed the fumes from the production, and the use of this renewable energy source, prefered by many poor, is noxious to the environment. But instead of releasing these gases into the atmosphere, they should be captured and condensed.

 

         This technique was originally developed in China and later perfected in Japan as a way to preserve bamboo and small diameter wood. The gases generated in the production of charcoal are caught through a simple system based on cooling water, and then re-evaporated under a slight pressure to impregnate fibrous materials. This technique converts a problem into an opportunity. Indeed, the gases are now a substitute for arsenicum-based preservation agents, which are toxic and should be avoided at all cost in the first place.

 

         The small wood chips can now help preserve the larger ones, which can be integrated into constructions of a longer useful life. Whereas construction is considered temporary, this does not mean that the building materials should be of cloth (tents) and steel bars only. This technique has been proven in Colombia with the support of a team of construction engineers who were exposed to the preservation techniques of Japan. They did not simply copy the high technology from Japan, but rendered this approach much cheaper, using scrap metals and even old metal barrils in order to prove that this technique is useful. The cost of operation is a fraction of the high tech solutions from Japan. The cheapest version can be put into operation for less than US$ 50.-.

 

Raw Earth and Straw

         Living in tents is attractive during a summer holiday. But the thought of having to reside for years in a mere tent is hardly appealing. There are numerous construction techniques which could replace tent structures, which are an ideal short term solution, with whatever local alternative which can be found. Raw earth has been used to build houses for millennia, and adobe bricks have proven their value. Though whatever is available locally it should be considered over canvas, steel, cement and aluminum which is so easily chosen but which neglects the local materials which could be sustainably harvested. Apart from raw earth which has been studied in great detail by the French-based Earth Building Research Institute located at the University of Grenoble, attention should also be given to straw-bale housing and bamboo structures. The last one being of particular interest when earthquakes are imminent, and when bamboos are in abundance in tropical areas which could range from sea level to + 2,000 meters altitude. But even if bamboo were not available, it is endemic to over 100 countries and could easily be planted permitting to “harvest” a home on every 100 sqm each year! Now we are really starting to think out of the box.

 

Energy systems

         Biogas from biodigesters is perhaps the most abundant but poorly tapped source of energy. But one good old technology which has not been used extensively is the crancking systems. Ever since Freeplay Radio from South Africa has reintroduced the cranck radio to the world market, reinventing a system which was prominent before batteries started polluting our world at a rate of 6 billion units per annum, the North has looked the other direction: the easy lazy solution of polluting batteries. Crancking up the radio, or a generator using human force, instead of solar, diesel, or gas, is very simple and yet unused. Just imagine the health effect of those stationary bicycles.

 

         The logic behind crancking is simple. It requires little physical effort, could be no more than a simple swing of the arm, or a ride on a stationary bike, but its result is predictable, and its efficiency high. Programs which offer such a small unit to refugees, actually equips them with a technique which they can simply take with them afterwards, bringing home a renewable energy based on human muscle power while reducing that need for access to the grid.

        

From Fairy Tales to Reality

         The biggest challenge in a recently established refugee camp is how to secure that people have hope? How to engender a feeling of belonging? How to look at their predicament as an opportunity? It is understandable that anyone who has survived such an ordeal would cheat and lie in order to get back home. And, if they believe it is impossible to ever get back home, how to channel their bountless energy into positive energies and ascertain that it will not degenerate in anger, frustration, aliniation and agression, even against volunteers who work to alliviate their situation.

 

         This requires an educational strategy. This approach is not based on presenting fairy tales and creating many dreams which will never be realized, but rather stimulate the whole community to consider fairy tales, which they can actually convert into reality. This will be the biggest challenge in the construction of a refugee camp, but ultimately it will be the most rewarding one. It is the one the ZERI Foundation is most interested in.

 

        

 

 

 

 

        

 

        
Table 1 : Immediate Needs, Available local Resources and External Aid

 

Need       Technology           Local Resource       Necessary Aid

Water       condensation                humidity in the air                flex pipes

                  closed loop wells          aquifers                       water tanks

                  making of pp pipes               wells                            polipropylene

                  irrigation                      septic tanks

                  over the ground pipes  waste PP                              

Food          rebuilding top soil                 local rocks                    emergency

                  natural fertilizer          compost                       food supply

                  miniature gardens                 food residues               mycellium

                  mushroom farming               cardboard/paper

                  algae farming               waste water from digestor

                  hydroponics                          hair and finger/toe nails

                  animal feed                           small herds

                  phytorodents               foliage of small wood

                  rock over bakery

Sanitation         3-stage biodigestor               human waste               EPDM plastics

                                                      water hyacinth e.a.

                                                      animal waste

Health care       balanced EAA               balanced food intake

                  mycomedicinals           immune system boost

                  betacarotene, Vit E       algae production

                  pressure cookers          biogas

Shelter     pyrolitic acid                waste paper

                  pressure smoking                  straw

                                                      earth

                                                      construction debris

Energy      closed loop wells          aquifers and wells

                  digestor                        biogas

                  charcoal production      waste small diameter timber

                  cranking energy

Security   night lighting systems  biogas

                          

Waste       separation techniques  solid household waste  

management aluminum recovery

   

Education fairy tales

                  learning by doing

Jobs        all above generates jobs and builds the skills needed  

© 2002, Gunter Pauli

The Integrated Design of a Refugee Camp

 

                water                                         rocks

 

 

                                                                        ovens

                                                          basalt

 imported       aquifers   humidity

 by tanks wells              in the air

 

                                                                 replenish

                                                                 top soil

 

                                          

 water packaging

                                         gardens                         earth

              black water tubes

                                                  fertilizer

       PP-bags

                      condensation                         septic tanks

                      techniques

                                                                    forest

 water savings                                                                baking

                                                                         lights

 

                                                  foliage            housing

       mushrooms

                                                                    charcoal

                      waste water

                      treatment                             algae

 

                      water hyacinth                                           cooking

       digester                        animals                 

 

 

                                           biogas

 

 

     Generating Jobs       Providing Hope     Sustainable      Local Partnership
Gunter Pauli (1956)

       trained as an economist, known as an innovator, working as an educator, Gunter prefers to describe himself as an enzyme, someone who makes it easier for others to do the job. He has written 12 stories and his educational strategy “from fairy tales to reality” has been adopted by schools around the world. In 1994 he established ZERI, a network of scientists with the objective to redesign our production and consumption system based on what people have, operating in co-evolution with nature.

 



[1]                Mshigeni, Keto e.a. Proceedings of the Fourth World Congress on Zero Emissions, Univeristy of Namibia, Windhoek pp -