Mostrando entradas con la etiqueta DIY. Mostrar todas las entradas
Mostrando entradas con la etiqueta DIY. Mostrar todas las entradas

trailer sobre un tutorial para autoconstruir un invernadero: the green house of the future

 

“We are living in very uncertain times where a global financial crash could occur at any time, the greenhouse of the future DIY will teach you how to build a passive solar greenhouse made from recycled and sustainable natural materials allowing you to grow food all year long without the need of using any heating system”







Ortigas


Buscando usos y cómo hacer purín de ortiga, hemos encontrado este documento del Ministerio para la transición ecológica y el reto demográfico en el que se detallan todos los usos y aplicaciones de la ortiga.

Es increíble lo que, durante muchos años se consideró una mala hierba, puede hacer por nosotros, nuestra huerta y nuestros animales.



¿que plantar en el apocalipsis?




Refugio:

Lo más importante, el refugio, uno que reúna dos simples características: mantenerte caliente y seco, lo demás se puede mirar después, pero uno sobrevive caliente y seco. Un invernadero es lo segundo más importante, para manejar y alargar nuestra temporada de plantación y cosecha y en muchos casos plantar cosas que no se dan en nuestras latitudes.

Comida:

Con ningún signo de que la sociedad civilizada se vuelva a instaurar en un futuro próximo, necesitas un plan de acción que te alimente cuando tus reservas de latas y conservas se acaben, para continuar con tu supervivencia

Patatas:
Alta en carbohidratos. Muchas variedades. Larga vida bien guardada. Aprende a plantarlas

Tomates:
Todo (o casi) el año en un invernadero. Eficiente en espacio (al poder colgarse). Aprende a Cultivarlos.

Legumbres:
Altos en proteínas. Restauran el nitrógeno del suelo. Se pueden secar para que duren años.

Col:
Se pueden plantar en invierno. Nutricionalmente completa. Aprende a plantarlas.

Calazabas:
Se pueden plantar en invierno (según latitud) y aguantan frescas mucho tiempo. Aprender a plantarlas.

Brocolí:
Se puede plantar en invierno. Gran cosecha. Nutricionalmente completo. Eficiente en el espacio. Aprende a plantarlos.

Aguacate:
Alto en grasas de alta calidad. Aprende a germinarlo.

Manzanas:
Gran cosecha. Nutricionalmente completa.

No te olvides de conseguir tarros, jarras y recipientes herméticos para hacer conservas en las épocas de abundancia.

Aparte de todos estos cultivos es importante que ante cualquier apocalipsis o imprevisto, seas capaz de obtener tus propias semillas para poder cultivar durante largas temporadas.

Medicina:

Lo ideal es que se consulte a un profesional de la medicina para tratar cualquier tema relacionado con la salud, pero en este hipotético apocalipsis puede que no sea posible. Aquí os presentamos unas plantas básicas asociadas a propiedades medicinales en el evento de que las farmacias hayan cerrado… para siempre.

Malaria:
Chinchona spp.
La corteza de la chinchona contiene altos niveles de quinina, la medicación usada en el tratamiento y prevención de la malaria. Este sería uno de las plantas clave en una zona donde la malaria siga en activo después de un apocalipsis.

Aspirinas:
Salix spp.
La corteza de los saúces contiene grandes concentraciones de ácido acetil salicílico, el componente principal de las aspirinas, así que mas o menos puede ofrecer el mismo nivel de supresión de dolor, fiebre e inflamaciones.

Antisépticos:
Thymus spp.
El tomillo contiene Thymol, un antiséptico que se usaba en la antigüedad para heridas, vendajes mucho antes que cualquier antibiótico, incluso infecciones de hongos.

Desequilibrios estomacales:
Taraxacum Officinale
El diente de león será una de las plantas estrella en una situación apocaliptica. Contiene muchísimos activos farmacológicamente útiles que ayudan a la regulación de la acidez del cuerpo, limpieza de hígado entre otras muchas cosas. Las hojas son comestibles.

Purificadores del Aire

Nunca sabemos como cambiará la composición del aire en este hipotético escenario apocalíptico. Cualquier tipo de desastre puede dejar residuos químicos en el aire y estas plantas certificadas por estudios de la NASA como purificadoras del aire en estaciones espaciales pueden ayudarte en el proceso.

Spathiphyllum spp.
Benzeno, formaldehído, tricloroetileno, xyleno y amoniaco, entre otros componentes es capaz de filtrar esta fantástica planta. Pero ten cuidado es tóxica para los animales de compañía.

Chrysanthemum spp.
Si no tienes acceso a la anterior, esta te ofrece la misma filtración pero es igual de peligrosa para mascotas.

Liriope spp.
Si prefieres que tus mascotas sigan viviendo por mucho tiempo y no tienes acceso a las otras dos, esta te ayuda igualmente, además con gran variedad dentro de la familia de plantas.

Gerbera spp.
Esta en comunión con la anterior te ayuda a filtrar todos estos gases (que incluso hoy día tenemos en calles, casas y oficinas) y mantiene tus gatos y perros sanos si las comen por alguna razón.

Otros usos

Sobrevives el apocalipsis, el fin del mundo, el racionamiento de comidas, nuevas y raras enfermedades, el aire tóxico… quizás es idea de plantearse el futuro. Estas tres plantas te ayudarán a disfrutar un poco más de esta vida tan jodida que te ha tocado vivir.

Cebolla:
Sumando al sabor y sus cualidades nutricionales, su zumo puede untarse en la piel para prevenir picaduras de insectos (puede que no huelas muy bien, pero quizás no hay nadie más para olerte) Y este truco también sirve para evitar que las plantas tengan ningún tipo de plaga o animal hambriento que te deje sin reservas de la noche a la mañana.

Ortigas:
Las ramas y tallos de la ortiga tienen buenas fibras que se pueden usar para hacer cuerda, o con suficiente para hacer grandes textiles, como sacos o ropa. Las hojas comida, té o un fertilizante fantástico lleno de nitrógeno.

Verbascum spp.
Esta planta tiene unas fibras interiores que pueden ser usadas secas para tener un cobustible rápido para crear fuego con herramientas rudimentarias, de fricción. Las hojas grandes y suaves pueden ser papel de baño.




domo geodésico invernadero




Geodesic dome greenhouse stop frame animation showing a four hour build in one minute. Using the Geo-dome building method anyone can build a professional looking geodesic dome, all you need is a table saw and a few basic woodworking tools.





Alightmouse: domo geodésico para invernadero y acuicultura en código libre



Is the first project to be designed and documented by "Alightmouse: Open Source Projects", this release contains a set of construction documents for a 10 Square metre Geodesic Dome Greenhouse. This 10.6mb ZIP file package includes construction plans, a recommendation guide and a preliminary materials schedule. All 100% free.




Impact farm: granja urbana vertical empaquetada y autosuficiemte



La agricultura urbana es un gran desafío y cada día nos sorprenden con algo nuevo. El espacio limitado es una de las mayores y grandes barreras para que los alimentos frescos se puedan cultivar con regularidad dentro de las ciudades, lo que generalmente se traduce en producciones muy limitadas de productos. Sin embargo, una empresa danesa está intentando solucionar el problema con su propuesta de granja urbana Impact Farm, que puede albergar huertos urbanos hidropónicos verticales, aprovechando el espacio al máximo ( me viene a la cabeza la granja de lechugas en Japón). Una Granja que está diseñada para reunir en torno a ella a comunidades que quieran producir sus propios alimentos orgánicos dentro de las ciudades.

Este proyecto me recuerda mucho al que vimos hace unos años al que llamaron “The Globe“, un concepto de granja urbana hidropónica, donde también podían producir pescado.

Con un área de producción de sólo 163 metros cuadrados, esta granja vertical puede exprimir fácilmente los espacios limitados urbanos. El diseño de Impact Farm permite que pueda ser instalada prácticamente en cualquier lugar, así que puede ser utilizado para fines comerciales o para abastecer a una comunidad. Mikkel Kjaer y Ronnie Markussen (los padres del proyecto), que dirigen el estudio de diseño Hábitat Humano, dicen que la finca puede ser desempaquetada e instalada en tan solo 10 días. Está diseñada para ser autosuficiente en cuanto al consumo de agua, el calor y la generación de electricidad, ya que incorpora paneles solares en el tejado.


Dependiendo de las plantas cultivadas, los diseñadores afirman que Impact Farm puede producir de 3 a 6 toneladas de alimentos frescos al año.

“Queríamos volver a conectar a las personas a sus alimentos, dándoles un espacio verde que trae la naturaleza en nuestras ciudades” comenta Kjaer.

Quieren dar a la gente una habilidad útil para aprender y oportunidades de empleo o negocio, la idea de la granja urbana aborda los problemas de empleo e inaccesibilidad a alimentos frescos, que suelen ir cogidos de la mano en ciertas zonas urbanas. El dúo se dirige a los Estados Unidos, con la esperanza de ofrecer un modelo que pueda servir a pequeños negocios y a comunidades para cultivar alimentos de otra forma.


La granja de impacto es capaz de cultivar verduras, hierbas y frutales en su estructura de dos pisos. El producto se cultiva en hidropónico. La granja piloto está en Copenhague, con la esperanza de atraer a otras grandes ciudades y lugares incluso en crisis humanitarias. Los alimentos frescos deberían estar disponibles para todo el mundo, bajo cualquier circunstancia. Hábitat humano traza el camino para hacer esto una realidad.

También disponen de un modelo mas pequeño adaptado por ejemplo para restaurantes o escuelas.





reconversión de una piscina en un invernadero



Garden Pool started as one family’s blog to document converting an old backyard swimming pool in to a closed-loop food-producing urban greenhouse and has evolved in to a non-profit organization.

The GP (short for Garden Pool) was a one of a kind creation invented by Dennis McClung in October of 2009. It is truly a miniature self-sufficient ecosystem. Rather than keeping our creation to ourselves, we have decided to share it with others. GPs are being built all over the world offering an easy and sustainable solution to current food production challenges.

Garden Pool is dedicated to research and education of sustainable ways to grow food. Our mission as a non-profit is to develop better ways to grow food and help others do the same. Our operations are based in Mesa, Arizona at the home of the original Garden Pool.

The Garden Pool combines: 
  • solar power – harnessing and storing the sun’s energy 
  • water conservation – using less water and recycling waste water 
  • poultry farming – raising chickens 
  • aquaculture – raising tilapia fish
  • hydroponic gardening – growing fruits, veggies, & herbs without soil 
  • organic horticulture – using natural methods to control garden pests 
  • aquaponics – the symbiotic cultivation of produce and fish in a recirculating hydroponic environment. 
  • biofiltration – natural water filtration method using biochemistry and duckweed. 
  • thermal mass - thousands of gallons of water that is warmed by the sun and being surrounded by earth and concrete provides “inertia” against temperature fluctuations. 
  • permaculture - GP systems mimic relationships found in natural ecologies. 

How We Made It:

Step 1. Find an empty Swimming Pool
Step 2. Frame it
Step 3. Just add PVC
Step 4. Cover in UV Plastic
Step 5. Add solar setup.
Step 6. Add plants, chickens, & fish.

como hacer un seto natural




Fences on your farm or homestead define property boundaries and separate production zones (garden, pasture, orchard). They provide privacy and security from animal (and perhaps human) intruders. They confine livestock and protect them from predators. They guard crop areas from wild raiders (such as deer) as well as animal allies (such as sheep and goats).

Your first choice for such a multifunctional homestead necessity may be manufactured fencing: woven or electric wire, welded livestock panels, boards on pressure-treated posts, or even virgin or recycled plastic. As the energy and environmental crises deepen, however, such options are becoming less appealing and more expensive. The chemical preservatives, paints, and galvanizing agents used in fence manufacturing and maintenance may have toxic spillover effects in the environment. Furthermore, most manufactured fencing is a “one for one” solution. A woven wire fence meant to contain livestock, for example, provides that service and nothing more. The key to a more self-sufficient homestead that imitates natural systems is finding solutions that simultaneously solve more than one problem, provide more than one service and support more than one project. Enter living fences.

The Many Benefits of Living Fences

A living fence is a permanent hedge tight enough and tough enough to serve almost any of the functions of a manufactured fence, but it offers agricultural and biological services a manufactured fence cannot. For instance, it provides “edge habitat” that supports ecological diversity. As more species (insects, spiders, toads, snakes, birds and mammals) find food and refuge in this habitat, natural balances emerge, yielding, for example, a reduction of rodents and crop-damaging insect populations.

Depending on the plant or tree species you choose, living fences can provide food and medicine or fodder for your livestock. Your animals will also enjoy the shade of a dense hedge. The foliage of some hedge plants, such as elder and Chinese chestnut, contains more protein than the quintessential protein forage crop, alfalfa. Willow and honey locust also make good fodder. I’ve been experimenting with Siberian pea shrub recently, as the peas can be harvested to feed poultry.

Leguminous species included in the fence, such as black locust and pea shrub,fix nitrogen in the soil throughout the root zone, and you can harvest some of that nitrogen for garden mulches and compost in the form of leafy prunings. A living fence increases soil humus as its leaf litter and root hairs (which the plants shed to balance loss of top growth to pruning or browsing) break down.

Living fences are windbreaks, which reduce soil drying, wind erosion, and stress on livestock or crop plants, thus increasing yields. Hedges sited along contours can reduce rainfall erosion on slopes.

Living fences can last far longer than manufactured ones — for as long as the natural life span of the species used, which may be hundreds of years. Many species can be “coppiced,” meaning they will send up abundant new shoots after the main trunk has been cut. A living fence of a coppiced species readily renews itself following selective cutting for wood fuel and other uses.

Finally, a living fence, unlike a static manufactured fence, brings an ever-changing beauty to your landscape: flowers in spring, colorful fruit in summer, brilliant colors in fall and a complex, geometric structure in winter.

Living Fences in America

Though common in ornamental landscaping, living agricultural fences haven’t been used much in the United States, despite extensive use in countries that supplied Colonial America with most of its new settlers. George Washington tried to carry on the tradition at Mount Vernon because, like modern gardeners and orchardists, he was plagued by deer and other marauders. Washington, concerned by both the labor and the loss of forest involved in producing split-rail fencing, concluded that growing living fences was not only a good idea, but was a necessity.

According to Washington’s diary, the species he settled on as most suitable was “Honey locust; the seed of which not to be put more than Six Inches a part; that when they get to any size they may be so close, stubborn, and formidable, as to prevent an escalade [incursion by predators] ... indeed I know of nothing that will so effectually, and at so small an expence, preserve what is within the Inclosure, as this plant.”

Osage Orange

Major living fence applications in the United States have utilized Osage orange trees (Maclura pomifera), also called hedge apple or horse apple. For an incredibly tough, enduring windbreak that’s a major player in a local ecology, probably nothing surpasses Osage orange. It was planted extensively in the central and eastern areas of the country in the 1800s (before the invention of barbed wire), especially to fence the rapidly colonized prairies. After the Dust Bowl in the 1930s, thousands of miles of Osage orange were grown as shelterbelts to prevent wind erosion.

Easily propagated from seeds, cuttings, or sprouts from the roots, Osage orange is tolerant of a wide range of soils, resistant to drought, long-lived, and affected little by insects or disease. Planted at a spacing of 1 foot, in four years it makes a fence that is “horse-high, bull-strong, and hog-tight.”

The sharp, stout thorns on Osage orange growth deter deer and livestock. A couple of heavy prunings a year can keep an Osage hedge 4 feet high by 2 feet wide. Without hard pruning, however, it will rapidly grow much taller. Because Osage orange coppices vigorously, farmers can clear-cut sections of fence on a 10- to 16- year cycle for fence posts (about 4,000 per mile) that are immune to termites and are the most resistant to decay of any North American tree species. Osage fence posts have been known to stand in the soil for more than 50 years without rotting. The hard, strong wood was previously used to make hubs and rims of wagon wheels.

Establishing Living Fences

Homesteaders typically create living fences by planting appropriate shrub or tree species — started nursery plants, stem, or root cuttings or seeds — at close spacing. As they mature, the saplings are pruned tightly to force thick, bushy growth and form an impenetrable hedge.

Another fascinating option is to join the individual plants by “inosculation.” Inosculated trees or shrubs are planted 4 to 8 inches apart. As they grow, crossing branches are tied, and they then grow together into natural grafts. The result is a closely meshed barrier that becomes stronger and more resistant each year.
Multifunctional Options

A living fence that will be exposed to deer or goats needs to offer deterrence to keep the animals in or out, whichever the case may be. Hawthorns are small trees with stout thorns that make a good defense system. They produce berries that are edible (by wild birds and people) and that can be used medicinally. The wood makes good fuel and tool handles.

Other thorny species that could be used to make living fences are pyracanthas, jujube, hollies, black locust (also fixes nitrogen), honey locust (which has high-protein seeds and pods for livestock and people), prickly ash, and rugosa rose (which has vitamin C-rich fruits, or “hips”).

Of course, your choice of species depends on your climate and the purposes for which you want to use the fence. A couple of widely adaptable species illustrate the multifunctional possibilities.

Jujube (Ziziphus jujuba), hardy in Zones 6 to 9, fruits precociously, and grows quickly even in poor soil and drought. A young tree I planted two years ago (northern Virginia, Zone 6b) is now covered with sweet, pleasant-tasting fruit. The fruits, leaves, seeds, and roots have been used in various Asian medical traditions, and the leaves make excellent livestock fodder. The dense wood makes fairly good fuel, charcoal, and agricultural implements.

Hedges of tagasaste (Chamaecytisus palmensis), which remains in leaf year-round, have been used extensively as windbreaks and shelterbelts in drier regions, and in Australia, they’ve been used as green firebreaks (used to stop the spread of fire). A deep-rooted nitrogen-fixer, tagasaste grows rapidly even in poor soil and dry conditions. It makes a hedge that recovers quickly from frequent cutting and browsing. Many livestock species, including ruminants, pigs, and poultry, relish tagasaste’s foliage, which is 20 to 27 percent protein. An early bloomer, it’s excellent forage for honeybees. It coppices readily, and its wood makes good fuel.

If you want to try an inosculated fence, a wide range of tree, shrub, and vine species are good candidates: elm, a number of the oaks, olive, dogwood, beech, hornbeam, peach, almond, hazel (filbert), a number of the willows, sycamore, grape and wisteria. Trees with pliable branches are especially suitable, with apple, hawthorn, linden, and pear among the best.

You may certainly mix different species in your living fences. You could set larger trees — fruit or nut trees, for example — at greater spacing than a tightly planted hedge, and then fill the gaps with lowergrowing species such as rugosa rose or berry brambles, which would produce harvestable food and thorns for deterrence.

Disadvantages

Establishing living fences can be labor-intensive — think of planting 450 seeds or cuttings per 100-yard stretch of fence. Before the fence becomes well-established, you’ll need to take care to protect it from weeds, deer and domesticated browsers. Regular pruning of the mature fence may be necessary. Of course, if you use the prunings for mulches or livestock fodder, the chore is hardly lost effort, and in some cases, the pruning can be left to grazing livestock.

The Future of Agricultural Fencing

Since the death of George Washington’s dream of farm-grown fences, Americans exploiting an incredibly rich continent and rapid technological innovation have usually preferred manufactured fences to living ones. As we enter a new age of ecological limitations and awareness, however, we will hopefully rediscover the benefits of growing our fences. We may even discover a new land ethic through utilizing a farm resource that serves as a major part of the landscape and spans generations.

How to Start an Osage Orange Living Fence

1. Collect “oranges” in fall and store them in buckets exposed to freeze-thaw cycles — and even rain and snow — all winter.

2. During the same fall, plow a furrow where you want the hedge. Leave it open and let the soil mellow over winter.

3. The following spring, at about corn planting time, add a bit of water to the buckets and mash the fermented oranges into a thick slurry.

4. Dribble the slurry along the furrow.

5. Partially backfill the furrow with some soil to cover the seeds.

6. If it seems prudent (i.e., the tree seedlings are consistently crowded), thin the seedlings to about 18 inches.

7. In fall, lay the seedlings over in the trench, weaving them together. Backfill the trench, but don’t cover the entire stem of any tree.

8. The second year, the trees will sprout a mess of lateral branches that will grow straight up.

9. In the second fall, weave the new vertical stems together so you get a horizontal stem barrier about 2 feet from the ground.

10. In the third year, prune the hedge’s shoots to the final height you desire (4 to 5 feet works well for most purposes). Pruning the rapidly growing verticals several times over the summer will stimulate the lower buds and branches to produce more (and more vigorous) growth. 

Harvey Ussery’s newest book, The Modern Homestead Poultry Flock (Chelsea Green), will be released in 2011. Visit his website, The Modern Homestead. 




nevera que funciona sin electricidad


Actualmente las neveras representan alrededor del 30% del consumo total de energía en nuestros hogares, estos aparatos tan necesarios representa un gran parte del consumo eléctrico. Sin embargo, en la India, el artesano Mansukhbhai Prajapati creó un refrigerador que no requiere electricidad ni enchufes para trabajar.

El artesano trabajó en la fabricación de envases de cerámica para el almacenamiento de agua fresca en el verano y señaló que el material mostró eficiente, incluso en el intenso calor del verano, con temperaturas que suelen alcanzar los 40 ° C. Así que, pensó, "¿Qué tal una nevera de cerámica?".

Mientras que nuestras neveras emiten gases tóxicos que dañan la capa de ozono, el desarrollo hindú, guarda las frutas y verduras frescas durante tres días, a través de la evaporación, de manera eficiente y sin generar contaminación ni utilizar complicadas fuentes de energía.

Para mantener la temperatura de la comida, la nevera tiene una cámara de agua en su parte superior, luego el liquido pasa por los lados de la nevera y su evaporación, reduce el calor, que hace que los comestibles permanezcan frescos.


En India se le empieza a conocer como la nevera de los pobres "Mucha gente no puede permitirse una nevera o no pueden pagar el precio de la electricidad que el aparato consume", dijo Prajapati.

Bautizado Miticool , la idea de este artesano se logro materializar, recibió el apoyo de una fábrica y ahora emplea a 20 personas en la producción de estas neveras. De construcción simple, la nevera que no necesita electricidad para funcionar promueve el bienestar de la naturaleza, la sociedad y ha acumulado premios y elogios de los ambientalistas.





invernadero semienterrado como un earthship


I had a dream once. - I am standing in a vast green summer field looking down into the earth. The ground is a large glass roof in the shape of a cross. I can see tropical plants and seedlings flourish in the warm, light flooded space beneath. There is a sacredness to the space that is breathtaking. - I woke up and remembered both the beauty and impossibility of the vivid dream. Plants growing happily underneath the earth? Can't be.

I met my farmer friend Verena a few weeks later and my dream came up during a conversation. She said, “Yeah, it's called an earth-bermed greenhouse. You can build such a thing and it's been done before.” Really? Well then, I thought, let's make a dream come true.

It took me a while to find the person who was willing to embark on the adventure with me. My friend Jesse, a natural builder who is always on the lookout for new territories to explore, gave in to the calling.

What was supposed to take a couple of months at the most turned into a year long journey, as he ended up not only building a practical and functioning earth-sheltered greenhouse, but a piece of green architecture that feels and looks like the sacred space I dreamed about three years earlier.

We used the basic building plans from Mike Oehler's book The Earth Sheltered Greenhouse for the layout and material list.

An earth-bermed greenhouse is best build into an already existing South facing hill with full sun exposure. We started clearing shrubs and fallen trees from an area close to the house matching these conditions and decided on a 16x16 foot growing space. Oehlers's plans include digging out a 3-4 foot deep “cold sink “ at the South side of the greenhouse. A space that is designed to allow cold air to settle into at night, rather than hovering over your tender seedling that are growing in the work space.



The soil in our area has a lot of clay and does not drain water well. We added French drains around the whole outside perimeter to redirect the water flow around the structure. French drains are trenches with perforated pipes that are wrapped in landscaping fabric. The trench then gets filled up with crushed #4 stone and covered with top soil.

Next we started digging the 3 foot deep post holes. Even with the drainage system in place, the holes immediately filled with water and we decided to add PVC socks to the 6x6 pine posts to make sure they would not be exposed to moisture in the ground, preventing them from rotting. After setting the posts the holes where back filled with cement.


Next, the walls went up. We found a good deal for rough red and white oak boards which we planed. Pine or hemlock would have worked as well, but we found a reasonable source for oak and we knew the walls would look beautiful when oiled later.


Oak does not do well when exposed to moisture, especially red oak, and we had to come up with a solution to protect the outside of our walls from the constant moisture in the ground that would surround them. We used a pond liner to protect the outside of our walls but also had to make sure that no moisture would condensate in between the walls and the rubber liner.

We had just replaced a cedar shingle roof on our house and used a product called cedar breather to provide airflow in between the cedar shingles and the plywood it gets nailed into. It allows the shingle to dry faster and prevents it from rotting, extending the lifespan of the shingle by many years. We decided to use the same product between the greenhouse walls and the pond liner to ensure airflow and avoid condensation and water damage.


We used a heavy duty pond liner and wrapped it around the whole structure, making sure not to rip any holes, and stapled it to the top of the walls.

Then we had to protect the pond liner from ripping during the back-berming process. We covered the pond liner with cheap sheets of plywood to make sure not to rip any holes into the rubber. Once the crushed stones settle against the plywood, the plywood can safely get wet and rot away over time.


We choose SunTuff for the roof. It's an affordable polycarbonate corrugated roofing material that does not gas off chemicals, has a decent R factor and comes with a 10 year warranty against UVdegradation.

We looked into double pane roofing material as well but the costs were astronomical in comparison and we felt we found a good compromise. To make the space feel more open and connected, we added a large safety window glass at the South side which provides a beautiful view into the surrounding woods and the feeling of being inside the cockpit of Starship Enterprise.


To ensure ample airflow and cooling for the seedlings during hot days, we added two large automatic vents to the South facing front and three vents above the North back wall. 


There is no access to electricity close to the greenhouse and we contemplated a solar powered automatic vent system. Adding a solar panels would have been too expensive and we found Univentautomatic vent openers instead. Univents are oil piston operated vent arms which automatically open when the air inside the greenhouse heats up and close again when the temperature drops at the end of the day. You can fine tune the opening and closing temperate by turning the pistons a half or full rotation further into the threads. These turned out to work really well and the growing space is self ventilating without the need for an additional fan.


We used all natural Tung Oil and citrus solvent to seal the walls and trusses. These do not fume any harmful chemicals into the space when the greenhouse heats up.


The whole structure was protected with cedar shingles and back bermed, first with #4 crushed stone to provide drainage and prevent the clay soil to push and heave against the walls, then with soil.


Large stones form the surrounding area were used for the floor to collect even more heat during the day and give it back to the space at night.


55 gallon barrels filled with water and stacked against the sun exposed North side act as heat sinks and balance the temperature in the greenhouse when they give their heat back to the space at night. We found recycled food grade plastic drums at Capital Containers in Albany for $18 a barrel.


We used cedar to build the doors and a window on the West side to let a little bit of extra afternoon sunlight flood the growing space.


Instead of using the typical cement blocks and wood pallets for the seed tray tables we decided to build hanging tables to protect our seedlings from rodents – which worked really well. We can also unhook the light weight cedar frames easily and use the space for other types of events, such as herbal medicine classes in the fall.


Later in the summer, when all herb seedlings have fletched and left our green mother womb (as we call her) the greenhouse is turned into a drying space for herb harvests. We keep the same hanging tables and simply lay fiberglass mosquito screen on the tables, then lay the fresh herbs out on the screen and let them dry with plenty of air circulation from the vents. When the herbs are dry we simply roll up the screen and carry the dried herbs out to the garbling station (garbling means separating leaves and blossoms from stems and other unusable parts).


The outside of the greenhouse provides for a a lot of new growing space. The whole front is South facing with full sun exposure and now hosts many new sun loving and low growing herbs.


The East side was bermed high and gets a lot of morning sun. We added key holes to the planting area so the whole herb bed can be reached easily without having to step onto the soil and compacting it.


Stone steps where added on the West side to hug the window.





agrodomésticos



[Agronautas] NRU / Nuevas Realidades Urbanas es un proyecto promovido por PEZ[estudio], que reformula las relaciones entre personas y medio natural.

Consiste en generar, formalizar y transmitir al imaginario colectivo realidades urbanas reformuladas en términos de sostenibilidad y procomún.

Estas realidades se ensayan a través de equipamientos ecológicos domésticos, innovadores, autoconstruibles y de código libre, que llamamos Agrodomésticos. Los Agrodomésticos reducen el consumo de energía y recursos y pueden adaptarse a cualquier espacio (vivienda, espacio público, etc). Funcionan como herramientas para generar nuevas prácticas asociadas, más resilientes y sostenibles.

[Agronautas] NUR / New urban realities is a project promoted by PEZ [estudio], which reformulates relationship between people and natural environment.

It consists on the generation of creative tools that reformulate through illustrating and bringing along discussions about renewed, desirable and possible realities, in terms of sustainability and commons. 

This realities are developed through domestic, innovative, free source, DIY and ecological infrastructures, that we call AgroDomestics. Agrodomestics reduce energy and resources consumption and they can be adapted to different spaces (homes, public spaces, etc). They work as tools to generate new more resilient and sustainable practices.