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

4 dic 2012

water technology


microorganism


RIVER RESTORATION

veden_taika

 






RESULTS:

Improves dissolved oxygen

Low energy, chemical free treatment

Odour filtration

Aesthetic cleantech

Reduced algae

Advanced tratment standards for BOD, COD, NH3.

 

Natural Treatment

The Biomatrix system is an engineered floating ecology designed to optimize powerful ecological treatment processes within an attractive feature of the aquatic landscape.  The Biomatrix combines the latest developments in ecological engineering with new biofilm research and traditional wastewater treatment processes.  Whole system engineered ecologies provide an energy efficient, low life cycle cost treatment solution.


The Form

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The systems are designed in sections, which can be configured in attractive natural shapes.  The Biomatrix unit can be designed to blend with the existing waterscape in strategic locations where performance can be optimized.  The system can be configured along the edge of the waterway, or centrally as islands or archipelagos.

Floating Structures

The Biomatrix system can incorporate variable levels of buoyancy from 10kg/m2 to over 100 kg/m2. The use of different levels of buoyancy allow areas of walkways, floating bridges, pavilions, boat docking sites or public artworks to be integrated with the treatment system.

Biomatrix systems are ideally suited for contaminated canals, rivers, lakes and reservoirs; as well as providing effective treatment of high strength waste in purpose built lagoons and treatment cells.

The Biomatrix provides the foundation and the substrate to support a diversity of life forms from many different phylogenetic kingdoms. These include the bacteria, fungi, algae, protozoa, annelids, mollusks, insects, vertebrates (including frogs and turtles), and higher plants. This multitude of life forms, in concert, have the capability to treat wastes, pathogens and toxins. The basic technological and scientific principles governing the design of natural treatment systems have been well articulated and subjected to scientific review.

salo-biomatrix 
TREATMENT PROCESSES WITHIN BIOMATRIX SYSTEMS CAN EFFECTIVELY:
  • Improve water clarity
  • Remove and stabilize nutrients
  • Reduce algae
  • Breakdown industrial chemicals
  • Remove Biological and Chemical Oxygen Demand
  • Filter out Suspended Solids and particulate
     
     
 WASTEWATER TREATMENT

six1


ECOLOGICAL TOOLBOX

ecological-toolbox

3 oct 2012

Networking Nature








Year: 2012
Location: Palazzo Bembo, Venice
Typology: Installation for the Venice Architecture Biennale 2012
Strategy: Creating a self sufficient ecosystem where it is impossible to see the dividing line between living machines and artificial organisms
Design and making: Studiomobile
Water network automation: Angelo Semeraro

" For the Venice Architecture Biennale 2012, Studiomobile explores a future scenario where men are forced to live in an unusual landscape shaped by environmental changes. At present, more than half the world's population lives and works in a coastal strip 200 kilometres wide, and in the near future sea is expected to characterize even more urban settlements. But not only adaptation is required. Next strategy will be assimilation, an approach characterized by embracing the changing conditions and taking advantage of the resulting opportunities. Frequently, changes perceived as negative open up new possibilities and innovative opportunities. We imagine new communities based on movement, living in flexible, self-sufficient, and nomadic structures. We believe that seawater is poised to become soon a key resource for urban environment
The ecosystem Networking Nature lives off seawater. Within a glass tank filled with salt water, some solar stills extract fresh water by exploiting the heat produced by small lamps. Seawater evaporates and the steam condenses into fresh water, which is collected in tanks and then supplied. 
However, water is not produced in isolated systems under central control. The new model provides for a large ecological infrastructure as well as small local production units connected to a network able to integrate the production of fresh water and to supply it where needed. It's a Smart Water Network controlled by sensors that read the local lack of water and, through an Arduino board, activate the pumps providing the water where there is a peak of demand. The Smart Water Network will be a layer of the ecological network as well as the Smart Power Grid and the communications network. This strategy not only gives response to the preservation of the environment, but it is also a radically new model that ensures free and democratic access to the resources to everybody.
Studiomobile's installations are working living machineswhere nature and built landscape live in symbiosis. They suggest a future immaginary where it is impossible to see the dividing line between naturalized architecture and plugged nature and between living machines and artificial organisms."




10 sept 2012

light is alive

1.Latro

 


Latro
2010
In 2010, scientists from Yansei and Stanford University pioneered a technique by where 30-nanometre wide gold electrodes were inserted into the photosynthesising organs – chloroplasts – of algal cells, thus managing to draw a small electrical current from algae during photosynthesis. As advances in nanotechnology lead to increasingly energy efficient products, plant life such as algae will become attractive sources for tapping energy. Latro is a speculative design concept responding to this potential future market.
Latro (latin for thief) incorporates the natural energy potential of algae and the functionality of a hanging lamp into its design. Synthesising both nature and technology in one form, Latro is a living, breathing product. Algae are incredibly easy to cultivate, requiring only sunlight, carbon dioxide (CO2) and water, offering a remarkably simple way of producing energy. Breathing into the handle of the lamp provides the algae with CO2, whilst the side spout allows the addition of water and release of oxygen. Placing the lamp outside in the daylight, the algae use sunlight to synthesize foods from CO2 and water. A light sensor monitors the light intensity, only permitting the leeching of electrons when the lux level passes the threshold – avoiding algae malnourishment. Energy is subsequently stored in a battery ready to be called upon during hours of darkness. Owners of Latro are required to treat the algae like a pet – feeding and caring for the algae rewarding them with light.

2. Trap Light

Trap Light
by Mike Thompson & Gionata Gatto
2011
Trap Light is the result of an exciting collaboration between Gionata Gatto (Pedalator, Urban Buds) and Mike Thompson (Latro, Blood Lamp), proposing a radical new approach to lighting design. By utilising photoluminescent pigments to capture escaping light, Trap Light converts waste energy back into visible light.
Photoluminesence is a process in which energy absorbed by a substance is gradually released as light. Using the Murano glass blowing technique, the designers were able to embed photoluminescent pigments into the glass body of the lamp. Through this process, Trap Light becomes both shade and light source, emitting, absorbing, and re-emitting light. 30 minutes ‘charge’ of recycled light from a traditional incandescent or LED light bulb provides up to 8 hours of ambient lighting.
With Trap Light, the designers illustrate, that by taking a fresh approach to traditional production methods and existing materials, they can create an engaging, new lighting experience whilst making the most of energy.

3. Blood Lamp

Blood Lamp
2009
What if power came at a cost to the individual?
The average American consumes 3383kwh of energy per year. That’s equivalent to leaving the light on in 4 rooms for a whole year. The simple flick of a switch allows us to power appliances and gadgets 24/7 without a thought to where it comes from and the cost to the environment.
For the lamp to work one breaks the top off, dissolves the powder, and uses their own blood to power a simple light. By creating a lamp that can only be used once, the user must consider when light is needed the most, forcing them to rethink how wasteful they are with energy, and how precious it is.

 
+ info :
Mike Thopmson
info@miket.co.uk
+31 (0) 638584931
Kronehoefstraat 1, Eindhoven, NL