Home sweet (hemp) home

December 5 is UN World Soil Day. The building industry has thus been called to account for its role in the massive use of mineral raw materials and environmental pollution. One solution comes from the bio-construction sector which draws on unlimited sources of natural materials such as hemp, which is a recyclable carbon sequestrator. But how comfortable is it to live in a hemp house?

Building with wood, straw, and hemp. Biobased materials are seeing ever more use in the construction sector, which needs to become more sustainable as it is one of the major sources of soil, air and water pollution.

Forty percent of global raw material is consumed by the building industry. Fifty percent of CO2 emissions into the atmosphere come from the construction sector,” reports Italian bio-construction expert Paolo Ronchetti. Moreover, “Traditional building and insulation materials – of mineral or synthetic origin – are rarely recyclable. At the end of their life they are disposed of in landfills. Therefore, besides having an important environmental impact for their production, they have an equivalent environmental impact for their disposal.”

Biodegradable and from unlimited sources. Instead of exploiting the earth’s crust, and using a process that consumes energy and pollute, the bioconstruction sector can get its materials from the field. Hemp is one of the best examples; it can be grown in crop rotation and improves the quality of the soil. The plant is also a “carbon sequestrator”: it grows very quickly and acts as a carbon store, absorbing atmospheric CO2 for as long as it continues to exist.

Ronchetti adds: “You should consider that one cubic metre of a brick made from hempcrete – a hemp and lime biocomposite – instead of emitting C02, and polluting, it captures 20 kg of CO2 from the atmosphere. A cubic metre of low-density hempcrete biocomposite, which is sprayed to insulate roofs or subfloors, can remove 60 kg of CO2 from the atmosphere. So you can imagine – with the volumes and the numbers in the construction industry – how much this virtuous model of building with hemp and lime can fight climate change.”

To note, in the past, industrial hemp was banned in many countries because it was associated with illegal marijuana, from which it differs as the psychoactive compound ‘THC’ is present in proportions of below 0.2%. A thriving industry was consequently stopped. Now hemp farming is flourishing again.

This material also has other advantages. It allows builders to make high-performance envelopes and offers more comfortable, healthy and energy-efficient houses. Furthermore, the traditional building industry has increasingly used synthetic and chemical products that can be toxic and hazardous to human health. Tough low allergen design using natural materials is becoming a new trend.

Northern Italy, Chiari, near Brescia. “In the Po Valley summers are terribly hot and humid. Winters are cold and damp. Humidity rules here!’’ says Sara Bordiga. His husband, Mauro Cogi, longed for an eco-friendly home, and started studying all the available possibilities on the market. Finally, he opted for hemp and in 2015, Mauro and Sara moved into their new biobased house with their child.

“My husband’s choice really surprised me. I had never heard about hemp houses!” says Sara.

Mauro, an engineer, personally followed all the building phases. “The hemp technology works very well. I wrapped the whole structure in this monobloc hemp envelope, thus avoiding thermal bridges.” It’s monobloc because they didn’t use bricks, the hempcrete was sprayed directly onto the structural walls.

As this natural material is porous, it allows the building to “breathe”, avoiding any stagnant humidity. It also keeps a consistent temperature, thus cutting heating and cooling costs.

“Unlike what happens in homes with traditional polystyrene cladding, which doesn’t let moisture out, hemp allows good air exchange. This leads to very dry walls and high environmental comfort,” explains Mauro. “In this house, whose heating and cooling systems are only electric, the maximum power required is 1.8 kW, which is little more than a hair dryer. And with this 1.8 kW I can cool or heat 180 square metres.”

“Zero mould. Zero moisture,” confirms Sara. “And we’re doing well! There is a good level of comfort, we live well in terms of air and well-being.”

Hemp mixed with lime is the usual solution to insulate this kind of building. But European researchers, working on the project called Isobio, went further and developed a lighter but more rigid panel, with improved thermal conductivity. Thanks to innovative biobased binders, whose formula is still a secret, there’s no need for lime. This solution has breakthrough potential in the building sector.

Mike Lawrence, professor at BRE Centre for Innovative Construction Materials, University of Bath, UK, explains: “This material is the major innovation. It is a mixture of the hemp shiv – the woody part of the hemp stock – and it’s been mixed with the thermal setting binder which is also biobased, to make something which is rigid but strong… Much much stronger than you will get with hemp lime, which is much more brittle material. And it’s a lower density than hemp lime, and it’s much more flexible in the possibilities.’’

“The other innovation is a low density, a low thermal conductivity render, and that’s made up with also hemp shiv but it’s very fine. And this is mixed with lime. But because it’s so fine and because of the formulation of the lime, you end up with a render which is very high performance, very low thermal conductivity, much much better than a normal lime render. It’s laid in two layers, it’s got a reinforcement, it’s a sort of plastic grid which is put in between the two layers just to stop it cracking. And on the top – when you put these layers on – you put a standard lime plaster, a lime render which provides the resistance, the full resistance to the weather. Because hemp has the ability to absorb and desorb humidity, on the outside when it’s raining you don’t want that, so you put this out of surface, which will stop the water coming in,” he adds.

“Between the panels we put a fibre insulation. This insulation is made up primarily of recycled cotton, and it’s also got fibres from flax and from hemp,’’ Lawrence concludes.

The researchers are testing these and other innovations in different climates, in Spain and in the UK. They installed their composite panels in two demonstration buildings in Seville and in Wroughton, and now they are monitoring applied solutions. According to their results, they can achieve 20% better insulation performance than conventional materials, 50% less embodied energy and CO2 emissions, 15% reduction in total costs.

Oliver Style, energy consultant and researcher for Isobio says: ‘’I think that the real innovation is bringing together biobased materials, a lot of which have been used in traditional constructions for centuries, and applying modern solutions to make them fire-resistant, water resistant, to make them bind well and combining all of these different materials in a prefabricated wall system, which can be industrialised. I think up to now a lot of biobased construction has been very small scale, it’s been in the field of people who are very committed to biobased buildings, but it’s quite small scale, quite bespoke. So what we’re trying to do is create scalable solutions that can be built at industrial scale and which can make all of the requirements of the marketplace regarding thermal performance, fire performance, resistant to different weather conditions.’’

The composite panels should enter the market by the end of the decade. These biobased materials are expected to become ever more competitive in the next years, as the European Union requires all new buildings to be “nearly zero-energy”, which means very high energy performance, by the end of 2020.

By Loredana Pianta

27 November 2018

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Bio-homes to tackle the housing emergency

A new sustainable initiative in Bristol, in the UK, uses bio-based materials to face the need for additional and affordable housing supply

Bristol is at the forefront of high-tech innovation in the UK, named European green capital in 2015. But it is also the second least affordable major British city housing-wise only after London.

Its estimated population is 454,200 people, according to the Office for National Statistics (ONS). Around 10,000 people are registered on the waiting list for a council home. There is a serious housing problem affecting both the young and the old.

To face the emergency, the Knowle West district is testing a new solution that is eco-friendly at the same time. We visited this neighbourhood in the south of Bristol, to discover how a community is trying to make possible a sustainable, affordable housing model using bio-materials.

The initiative, called We Can Make, gathered architects, designers, academics, policy makers, and residents. The result is a prototype house built on the grounds of a community centre, with the cooperation and participation of locals in the construction, plumbing, handmade carved furniture, art, and interior design.

The TAM (Transportable Accommodation Module) was designed and built using bio-materials such as straw, compress straw, and timber. These carbon capturing materials  minimise their environmental footprint.

The building is cool in summer and warm in winter, saving hundreds of pounds per month in air conditioning and heating. Actually, as soon as we entered the house, the temperature and the moisture in the environment were right despite the cold weather and rain outside.

According to Dr. Charles Gamble, our guide and head of Innovation at Stramit International, which is part of CooBio company, the TAM uses 90 percent less energy to heat and light when compared to the UK average.

Dr. Charles Gamble, head of Innovation at Stramit International, shows samples of the compressed strawboard panels used in the TAM (By Susan Fourtané)
Dr. Charles Gamble, head of Innovation at Stramit International, shows samples of the compressed strawboard panels used in the TAM (By Susan Fourtané)

The panels are made of compress straw and strawboard framed in timber and covered in clay,” he told youris.com. “Compress straw board has been around for almost 70 years since the technology was invented in Sweden in 1950. The process, also developed in the UK, provided building materials for more than a quarter million houses from the 50s to the 70s after which it became impossible to compete with plasterboard,” he added. These natural retrofitting solutions are also currently being tested at demonstration sites in the UK (Bath) and Spain (Seville) under the EU project Isobio.

Residents who have tested the TAM space overnight have reported that they slept better than usual, which is attributed to a good quality of air in the ambience. External people can rent it through Airbnb, and the income goes to the community centre.

“It’s the breathable nature of the building,” confirmed Finlay White from ModCell, which provided the straw panel systems, when we asked the difference from the traditional Victorian houses in England. “Around the windows in the buildings you don’t get condensation. This is one of the health benefits of using bio-materials,” he explained.

“The mapping of the Knowle West area identified thousands of small plots of land where TAMs could be put to relieve the housing situation for many of the families here who are stuck, because they have no employment or they’re too old. Sometimes you have three or four generations living in a small house,” Gamble said.

“A salary is £23,000 a year. The average price house is 8.4 times that,” added White, while the TAM cost for 36m2 is £90,000, with both leasing and hire purchase options.

IMG-2186

“What ‘We Can Make’ offers is a model that can be replicated in other regions involving local communities to develop in spaces that they privately own or the council owns, constructing the TAM systems locally to solve housing crisis,” said Gamble.

The team intends to place the houses approximately 200 metres from the community centre, hiring local people to help build the panels creating about 21 jobs in the location.

According to White, there have been identified 1500 potential sites in this area with seven similar more estates in Bristol, and “there are estates like these all over the UK that have the same housing issues.”

A report, We Can Make: civic innovation in housing, was released in October 2017 at the Festival of the Future City in Bristol. The project is in conversation with eight more councils around Britain where TAMs could potentially be built.

 

By Susan Fourtané

Photo credits: Stramit International

The many faces of hemp

The ecological properties of hemp makes it one of the types of insulation used in construction with the lowest carbon emissions footprint

A relatively recent interest in hemp as a building material responds to a global trend that encourages the development of bio-based products and the reduction of carbon emissions. But its use dates back to many centuries ago.

In China, in 200 BCE, hemp was mixed with lime and tung oil, and used as caulk for junk ships, classic ancient Chinese sailing vessels. It is no surprise these hemp vessels, which sailed by the early Middle Ages, are still in wide use. The permeability of the hemp material that controls moisture similarly to existing wooden elements, makes it ideal for the shipping industry.

In France, we can find another example of its early use in construction in the 6th century. Hemp mortar was discovered in Merovingian bridges where the crop was used to reinforce abutments. The first construction using hempcrete (hemp and lime composite) wrapped around a timber frame was built in 1989 in the same country.

Nowadays, France is Europe’s biggest producer of industrial hemp, and first in the world in hemp-seed production accounting for 59 percent of the global total.

The plant can be grown locally and harvested with minimum input in a matter of months. French Cavac Biomatériaux cultivates hemp and flax. The plantations are located close to its manufacturing site, reducing the company’s carbon footprint. The industrial production of hemp, flax fibres, and shiv, undergo a process of defibering and burling after which they are packed and delivered to the site. “We are a complete hemp chain from the field to the site,” says Valentin Colson, Service R&D of Cavac, which is also member of the European project ISOBIO focusing on eco-materials for low-carbon construction.

The company produces bio-based flexible and rigid insulation panels for the construction industry. “One important point is that the panel is vapour permeable. It is hydrophobic, which means that water has difficulty to penetrate the panel,” explains Colson, offers an excellent long-term mechanical stability, and can also be used to seal and improve the air tightness of the building.

Even though the hemp used in construction is fire resistant, researchers continue to look for better eco-friendly alternatives. “We are working on the fire-proofing of the new panel and try to find an eco-friendly solution to fireproof it,” says Colson.

In the UK, it was illegal to grow hemp between 1929 and 1993, because the plant belongs to the cannabis family. Other places such as Australia, New Zealand, Canada, and the US banned the cultivation of hemp for nearly 70 years due to its connection with marijuana. However, only 0.3 percent of THC (Tetrahydrocannabinol), the principal psychoactive ingredient in marijuana, is present in the strain of plant grown for hemcrete. All the bans are lifted now.

In the US, hempcrete imported from Europe was used for the first time in 2000 in the exterior of a home built for spiritual leader and Sioux elder Ernest Afraid of the Bear on the Pine Ridge Reservation in an attempt to offer the Sioux a return to a self-sustainable and independent life in balance with Mother Earth. However, the construction of a permitted hemp home did not begin until 2010.

In that year, former Asheville mayor Russ Martin and his wife Karon Korp built the first permitted hemp home in Asheville, North Carolina. Back then, they consulted with environmental designer Anthony Brenner, who brought the idea of building with hemp to the couple who was looking for a sustainable, energy-efficient home. After the success with Martin-Korp’s hemp house, Brenner was consulted on many other hemp homes.

Hempcrete panels are used as insulating infill of walls, roof, and under-floor offering great thermal and acoustic performance. Concerns in long-term performance of the plant in construction such as biological degradation, infestation, moisture, structural degradation, or fire “are solved with the presence of hydrated lime,” says Brenner. Among the many benefits of building with hemp, he highlights “carbon-negative, non-toxic, fire-resistant, and mold-resistant.” It provides natural insulation, and it makes for a healthy and safe building site. When a building is demolished, the hempcrete can be recycled and reused in a new building.

In the US, “many states are passing legislation to grow hemp now, which will make it more cost effective. The cost was the biggest hurdle,” says Brenner. This was because before the Agricultural Act signed by former US President Barack Obama in 2014 all the hemp was imported from Europe, mostly from France and the UK.

 

By Susan Fourtané

Photo credits: Esteban Lopez

14 December 2017

Living in a hemp house

Hemp, a multi-purpose crop that delivers fibres, shivs, seeds, and pharmaceuticals is currently used in insulation materials and bio-composites for a more sustainable construction industry. Russ Martin and his wife Karon Korp tell their story as owners of the first hemp house in the US

Hemp is getting more attention for its multiple uses in sustainable building. In the US, former Asheville mayor Russ Martin and his wife Karon Korp, built the first hemp house in 2010 using crop imported from the UK. They were inspired by Frank Lloyd Wright, an American architect and interior designer who believed in designing structures that are in harmony with humanity and its environment. Wright called this philosophy “organic architecture.”

Karon Korp and Russ Martin Photo source: Karon Korp
Karon Korp and Russ Martin
Photo source: Karon Korp

Since legislation passed in 2014, hemp homes can be homegrown in the US. However, the industrial cultivation of this plant is still in its infancy. There were only 4,000 hectares planted in 2016 in contrast to 33,000 hectares of industrial hemp grown in Europe in the same year.

“Hemp is a great option and a sustainable product that should be more widely accepted and used,” says Karon Korp, who together with her husband, lived for six years in their hemp house in North Carolina. “Designer Anthony Brenner worked with us to help create the home and its features, and brought the idea of building with hemp to us.” youris.com asked Korp to share some more details from their life in the hemp house.

 

What was your main motivation for building a hemp house?
We wanted to do something that had not been done before, in a healthy, green way that was more sustainable for our planet.

 

Do you still live there?
We sold the home last year, the first of its kind in America. Though the space was beautiful and we enjoyed living there very much, it was at 3,500 feet (around 1,060 metres) elevation, almost the top of the mountain. Our lifestyle and work commitments found us in town most days and we decided to simplify our lives a bit by moving to a more convenient neighbourhood.

 

How was living in the hemp house in the mountains like?
It was a sanctuary almost on top of the mountain, views of mountains and nature all around, filled with light in every room, ample wildlife – lots of black bears!

 

The first hemp house built from hempcrete in the U.S., belonged to Russ Martin and Karon Korp. It was their hemp home from 2010 to 2016. Photo source: Anthony Brenner
The first hemp house built from hempcrete in the U.S., belonged to Russ Martin and Karon Korp. It was their hemp home from 2010 to 2016.
Photo source: Anthony Brenner

Can you comment on how the insulation and air-purifying properties were when you lived there? How do they compare to your previous houses?
The home is 3,000 square feet (around 279 square metres), and the insulating factor of the hemp proved quite effective, even at the higher elevation where weather could be colder and more severe than lower elevations. Our electric bill was routinely below average for homes of similar size. As for the air-purifying properties of the home, I would say we were less prone to allergies while living there for six years.

 

Could you tell us more about other eco-friendly materials that were used in the house?
We had walls made out of a product from recycled paper. They are structurally more sound than traditionally framed walls, and on the exterior they are covered with a magnesium oxide board finish. We used recycled building materials throughout the home: flooring, windows, vanities. We used natural finishes, and NO VOC (volatile organic compounds) stains, and paint. The hemp was fire retarding.

 

What about the costs of living in a hemp house?
The cost of our house average monthly energy bill was $100 (around €85) for a 3,000 square feet (around 279 square metres) home. Moreover, we saved 25 percent on our homeowner’s insurance after moving into the hemp house.

 

Can you also share the price of the house when you sold it?
The house sold for $685,000 (around €584,000) in May 2017.
Do you think hemp could be the preferred material in the future of the construction industry?
While I don’t think it will ever completely replace traditional methods and materials, industrial hemp could revolutionise the building industry, and provide a new agricultural product that would support farmers and rebuild their industry.

 

By Susan Fourtané

14 December 2017

What about GMOs in our homes?

Adopting biobased materials in home building can slash construction costs, but is Europe ready to put aside its fears about GM products?

One of the main contributors of CO2 emissions are the homes we live in. In the EU, buildings are responsible for 36% of CO2 emissions and 40% of energy consumption.

Researchers argue that, compared with using traditional mineral-based materials in construction, “eco-friendly” durable composites can slash by half the embodied energy and improve insulation by 20%. This means better efficiency but also reduced building costs. The hitch, though, is what biobased materials to use. And is it advisable to avoid GM products?

GMOs, genetically modified organisms, are among one of the most controversial topics in agriculture. Experts have divergent views. “The current EU GM regulation is very much outdated and dysfunctional. Plant science has in the last 15 years made enormous progress,” says Stefan Jansson, professor in the Department of Plant Physiology at Umea University, Sweden. “Gene transfer from GM crops to wild relatives is no more or no less risky that gene transfer from all other (domesticated) crops to wild relatives, which no-one ever cared about.”

It is important to ask why we are shying away from GMO products, argues Jonathan Jones, a professor at The Sainsbury Laboratory, UK, working on a project to test modified potatoes and their resistance to blight. “The GM method is totally benign and totally safe and it enables you to move genes that do different things from one plant to another,” he says.

However, some groups pioneering the use of natural products in construction have opted to avoid GM materials.

It is the case of the European project ISOBIO, which is developing innovative solutions to boost the use of bio-based materials in construction. They do not use agricultural waste from GMO plants.

Moreover, the companies that joined the consortium source local products, which will be easier to recycle being part of their landscape. Manfred Lemke, from Claytec, a Germany-based developer and producer of clay, points out that they take their straw from the fields around the factory. “Cavac, another partner in the project, sources hemp from local farmers near its base France, rather than importing materials from overseas. ‘Think global act local’ for supply chains, it avoids contamination and further risks of anonymous, global supply chains,” he adds.

“Recycling agricultural waste sounds like a positive aim. If GM crops were involved, then the potential harms would need to be thoroughly, and independently, examined,” argues Liz O’Neill, director of campaign group GM Freeze. “Even the tiniest change to the genome can have unexpected impacts, both within the organism itself and in the ecosystem into which it is introduced, ” she says. According to O’Neill, EU labelling laws help consumers identify products with GM ingredients and avoid them if they wish.

In this context, EU Ecolabel, a voluntary labelling scheme, certifies, among other things that products do not originate from genetically modified organisms.

However we approach the GM issue, looking forward to further research on it, it is certainly important to brand any products containing GMOs to allow consumers to make their own decision.

 

By Sam Edwards

Photo credits: Redd Angelo

4 October 2017

On the way to demonstrating the benefits of bio-based materials for the construction sector

ISOBIO aims to develop new bio-based insulation panels and renders, and to scale them for mainstream adoption by the building and construction industry. The focus is now on the challenging demonstration phase.

ISOBIO innovation partners are bonded by a unique goal: to design a bio-based insulation material with the right chemical and mechanical properties to tackle water absorption, fire resistance and moisture buffering while ensuring high thermal conductivity. These essential properties provide material resistance as well as indoor wellbeing and confort.

In February 2017, partners convened on the premises of TWI in Cambridge for their mid-term project meeting. It was an opportunity for them to assess the research and preliminary prototyping, and to outline the regulatory and market challenges ahead. Following this meeting, the final composition of the bio-materials is now just around the corner.

As part of their research, the Universities of Bath and Rennes have examined the characterisation of bio-materials and the development of composite materials (including the insulating core and the composition of the external layer). These research results form the basis for the technical developments by industrial partners Cavac, BCB and Claytec. The innovation lies in the feeding of knowledge from the labs into the industrialisation phrase.

After testing and prototyping, ISOBIO is poised to reveal a bio-based product design offering all the right properties for a greener building and construction industry: high insulation, low embodied energy and carbon, and hydrothermal efficiency.

 

17 March 2017

A raincoat for our houses

From the use of Gore-Tex-like waterproof fabrics to the development of “breathable” bio-based materials, the construction industry is chasing breakthrough solutions to insulate buildings and keep living areas free from damp and mould

Today, one of the new challenges for the construction industry is the use of textiles, coming from the clothing and footwear industries. Gore-Tex-like membranes, which are usually found in weather-proof jackets and trekking shoes, are now being studied to build breathable, water-resistant walls. Tyvek is an example of one such synthetic textile being used as a “raincoat” for our homes.

Camping tents, which have been used for ages to protect against wind, ultra-violet rays and rain, have also inspired the modern construction industry, or “buildtech sector”. This new field of research focuses on the different fibres (animal-based such as wool or silk, plant-based such as linen and cotton and synthetic such as polyester and rayon) in order to develop technical or high-performance materials, thus improving the quality of construction, especially for buildings, dams, bridges, tunnels and roads. This is due to the fibres’ mechanical properties, such as lightness, strength, and also resistance to many factors like creep, deterioration by chemicals and pollutants in the air or rain.

“Textiles play an important role in the modernisation of infrastructure and in sustainable buildings”, explains Andrea Bassi, professor at the Department of Civil and Environmental Engineering (DICA), Politecnico of Milan, “Nylon and fiberglass are mixed with traditional fibres to control thermal and acoustic insulation in walls, façades and roofs. Technological innovation in materials, which includes nanotechnologies combined with traditional textiles used in clothes, enables buildings and other constructions to be designed using textiles containing steel polyvinyl chloride (PVC) or ethylene tetrafluoroethylene (ETFE). This gives the materials new antibacterial, antifungal and antimycotic properties in addition to being antistatic, sound-absorbing and water-resistant”.

Rooflys is another example. In this case, coated black woven textiles are placed under the roof to protect roof insulation from mould. These building textiles have also been tested for fire resistance, nail sealability, water and vapour impermeability, wind and UV resistance.

Production line at the co-operative enterprise CAVAC Biomatériaux, France. Natural fibres processed into a continuous mat (biofib) – Martin Ansell, BRE CICM, University of Bath, UK

In Spain three researchers from the Technical University of Madrid (UPM) have developed a new panel made with textile waste. They claim that it can significantly enhance both the thermal and acoustic conditions of buildings, while reducing greenhouse gas emissions and the energy impact associated with the development of construction materials.

Besides textiles, innovative natural fibre composite materials are a parallel field of the research on insulators that can preserve indoor air quality. These bio-based materials, such as straw and hemp, can reduce the incidence of mould growth because they breathe. The breathability of materials refers to their ability to absorb and desorb moisture naturally”, says expert Finlay White from Modcell, who contributed to the construction of what they claim are the world’s first commercially available straw houses, “For example, highly insulated buildings with poor ventilation can build-up high levels of moisture in the air. If the moisture meets a cool surface it will condensate and producing mould, unless it is managed. Bio-based materials have the means to absorb moisture so that the risk of condensation is reduced, preventing the potential for mould growth”.

The Bristol-based green technology firm is collaborating with the European Isobio project, which is testing bio-based insulators which perform 20% better than conventional materials. “This would lead to a 5% total energy reduction over the lifecycle of a building”, explains Martin Ansell, from BRE Centre for Innovative Construction Materials (BRE CICM), University of Bath, UK, another partner of the project.

“Costs would also be reduced. We are evaluating the thermal and hygroscopic properties of a range of plant-derived by-products including hemp, jute, rape and straw fibres plus corn cob residues. Advanced sol-gel coatings are being deposited on these fibres to optimise these properties in order to produce highly insulating and breathable construction materials”, Ansell concludes.

 

By Chiara Cecchi

21 December 2016

ISOBIO profiled in 5th EeB project review

The fifth edition of the EeB PPP Project Review, published in March 2016, gives an overview of 110 co-funded projects within the Energy-efficient Buildings Public Private Partnership (EeB PPP) under the 7th Framework Programme (FP7) as well as 17 new co-funded projects under the Horizon 2020 programme.

The review highlights current results and achieved or potential impact of the EeB PPP projects with demonstrations of scientific and technological excellence from early stage conception to almost ready-to-market innovations. The projects also illustrate the diverse innovation approaches and the importance of embracing all aspects of the building and construction sectors.

The review includes the following topics:

  • EeB PPP Impact
  • Design
  • Technology building blocks
  • Advanced materials and nanotechnology
  • Construction process, end of life, cross-cutting information
  • Energy performance monitoring and management
  • ICT
  • BIM/ Data/ Interoperability

EeB PPP is a joint initiative of the European Commission (EC) and the Energy Efficient Buildings (E2B) Committee of the European Construction Technology Platform (ECTP).

Download the review on the ECTP site