By Dr. Harpreet Seth, Head of Architecture at Heriot-Watt University Dubai

 

 

To many, the metaverse is a new word, a concept born of the internet age, a distant and scary place to contemplate visiting.

In reality, however, the first recorded use of the word was in Neal Stephenson’s 1992 novel, Snow Crash. In the novel, the protagonist, Hiro, moves in and out of a place called the metaverse, a computer-generated urban landscape where users can have real life like experiences.

Now, the metaverse is becoming a place for collaboration and innovation, visited by the next generation of engineers, designers and fashionistas through multi-sensory connected devices such as augmented reality (AR) glasses and virtual reality (VR) headsets.

Of course, 3D visualisation has been commonplace in construction for some time but is the industry ready to take the next step and enter the metaverse?

 

What is the metaverse?

 

The metaverse is a virtual-reality space where users can interact with a computer-generated environment and other users.  It is a 3D evolution of the internet, representing a virtual universe that can be experienced like the real world.

As one of the fastest-growing industries, the construction sector stands to gain from the metaverse in the future and not just the core industry, but other players involved, such as designers, architects, and project managers. Metaverse in the construction industry will help designers and architects create spaces in an increasingly efficient manner.

 

How can it be used in construction?

 

It is imperative to understand the importance of metaverse at all three stages of construction: design, development, and build. In these stages, the concept provides a near-real feel of the end product through AR and VR.

While architects, designers, and project managers will undoubtedly benefit from the metaverse, these professions will also help build it. Architects and designers are extremely important to create any space in the virtual environment, from designing indoor to outdoor spaces, which they also handle in the physical world. The potential of the experiential quality of the metaverse for its users is key to a holistic experience.

For construction project managers, it will allow them to live in the space as it is being developed, to literally walk through the rooms as they build around them. While they cannot be present at every meeting or site visit, they can keep an eye on everything happening at the build stage with the help of these virtual representations.

On the engineering side, the metaverse can help ensure all of a building’s operational systems, from ventilation and heating to lighting and security, are fully integrated. These are called ‘smart buildings’ and are essential in the drive towards achieving net zero.

Energy companies and government bodies around the world are busy retrofitting existing buildings with intelligent monitoring and management systems which ensure energy is used only when and where it is needed but imagine a scenario where issues likely to affect a building’s green footprint can be flagged in advance of construction. For example, the ability to exist in a space before it is built might provide useful insight into how human traffic or natural sunlight are likely to impact on the temperature of a particular room at any given time.

By creating a building’s digital twin, estate managers can run simulations using real-life scenarios before committing funds to a project. In short, it eliminates much of the guesswork, saving both money and the environment.

 

Are there potential downsides to the metaverse?

 

There is a danger that users will confuse the real with the virtual. A project imagined and viewed in a virtual world may look quite different to what is finally delivered in the real world. It will not be long before all things in the physical world will be given a virtual representation, blurring the boundaries of the physical and digital even further.

There are also the inevitable data privacy issues and questions over ownership. Who owns a virtual asset, for example? Does a company which owns a building in the real world also own its representation in the virtual world? Do they enjoy the same level of property protection and legal coverage? These are questions lawyers and ethicists are debating right now and it’s a complex area.

Accessibility and awareness are further challenges that can be a deterrent to the metaverse concept reaching its full potential.

 

Next generation 

 

At Heriot-Watt University we offer our students the opportunity to learn using the very latest technology, including AR and VR, and encourage an environment where academia and industry can come together to find solutions to all sorts of problems.

Featuring the ‘Imagineering Suite’, our GRID facility in Edinburgh operates as an incubator space for start-ups and entrepreneurs to co-locate and encourage their creative ideas to flourish. Users also have the capability to connect with global industry partners and our other university campuses around the world.

As part of our ‘Shaping Tomorrow Together’ strategy, we have appointed Professor Gabriella Medero, herself the founder of a Heriot-Watt spin out construction company, Kenoteq, as Associate Principal for Enterprise. Her role is to build a strong pipeline of academic entrepreneurs and develop new and innovative entrepreneurial initiatives.

Students leaving our university will be skilled in using the tools of the metaverse, ready to take their fresh ideas and energy into industries keen to support their ambitions.

Still nascent, the metaverse’s capabilities are yet to be fully seen and explored. However, the construction industry must be a leader in exploring its potential. In short, we need to be metaverse pioneers.

 

Lucideon unveils pioneering new test for mortar durability

Construction industry testing specialist Lucideon has launched a pioneering new method to assess the durability of mortar.

The company’s new special publication, “Determination of the Freeze Thaw Resistance of Mortar”, provides guidance around assessing the ability of mortars to withstand UK climatic conditions.

Developed to be in line with specifications set by the European Standards Organisation, the mortar durability test aims to ensure that products used in building projects are of the required standard across the UK and Europe. It will also provide a useful tool for insurers.

Dr Geoff Edgell, Lucideon’s Principal Consultant for Construction, said: “This is an extremely important subject and becoming more so as time goes on because cement manufacturers, in seeking to produce more environmentally friendly products, are reducing the amount of ordinary Portland cement in their products.

 

“We are also seeing new types of mortar being introduced to the market.

“As a result, we need to be able to determine that mortars being produced are going to be durable for use in UK climatic conditions.

“The test, which has been calibrated against performance on-site at a very severe exposure location in the East Midlands, is available now.

“We believe it is the first of its type available in the UK.”

 

The mortar durability test joins Lucideon’s established ‘freeze/thaw’ assessment method, used for the testing of clay-based products and forms the basis of the European test method for clay bricks.

Lucideon has been developing and operating these accelerated tests for over 45 years.

Accepted as industry standards, the Stoke-on-Trent based company’s current tests for masonry walling, roof tiles and pavers are UKAS accredited and have been validated against natural conditions.

A copy of the special publication and a video explaining the new mortar durability test is available at www.lucideon.com/mortar.

Yanmar, a global leader in the design and manufacture of construction equipment, has been on its zero greenhouse gas emissions path for over a decade. The scale of the challenge is huge – and success will be driven by economic considerations more than concern for the climate, believes Chief Strategy Officer Shiori Nagata.

Japan is an island with limited natural resources. We hate waste and have learnt the merits of circulating everything. Making better use of resources goes right back to 1912, when our founder Magokichi Yamaoka set up Yanmar with the aim of making more efficient use of fuel in engines. Then the ‘fuel’ was just oil, but today the options are so much wider – bringing hope for a cleaner future – but complexity at the same time.

At the Yanmar Group our corporate mission since 2012 has been ‘A sustainable future’. This is not just to please our ESG investors, it is truly our passion, our purpose – and our dream.

…but no one said it was going to be easy

Even now that we are a decade into our ‘Green Challenge’ we still forecast that it will take a further 28 years to achieve our zero environmental impact goal. By 2050 we will be totally free of greenhouse gas emissions in our business activities, circulate all resources and support our customers so that they can achieve the same greenhouse goals as us.

Of course, we would like to achieve our climate/societal goals faster, but we must be realistic as to the scale of the challenge. In 2019 we calculated that we caused 0.2 million tons of CO2 to enter the atmosphere from what we define as our scope 1 & 2, while a further two million tons came from our supply chain – and a staggering 80 million tons of CO2 was released from customers using our machines.

Changing this is going to take time. Our machines are made from steel, plastics, rubber etc. – and many of these components currently have no (or limited) green options. But we are committed to using them as they become available. In the meantime, we will source green energy and create our own, using solar panels on factory roofs. It will be a step-by-step approach, and different countries and customers will move at different speeds. This is much more than a Yanmar challenge – going green is as much a societal challenge as a technical one.

Electric machines make business sense

Electrifying our machines will be vital in achieving our zero carbon ambitions. And it is going to happen. But this is not as simple as in the car business, and many hurdles to adoption remain. The charging infrastructure needs to develop, and battery machines need to be proven in the harsh work environments of construction. People won’t buy electric machines to save the planet – they will buy them because they make economic sense. Fortunately, as costs fall, the total cost of benefit of using electric machines will make them the compelling option. As with the new range of electric machines we launch at bauma, they are simpler, more comfortable, with low vibrations and noise, and lower running costs.

We are starting on the energy transition with battery electric powered smaller machines, but by the end of the decade we will introduce hydrogen power in our larger equipment. All the major components of electrification are on a sharp development curve that will continually make them better. It’s a step-by-step approach to the green future we seek.

Multi-fuel future

Even electric machines have their own environmental challenges – if the electricity that powers them comes from a lignite coal power station, is it really that cleaner? Perhaps controversially, the much-maligned internal combustion engine (ICE) has a part to play in the green future. It must – if we all went electric today there isn’t nearly sufficient electricity generation to power them. But the ICE can be made clean, by burning non-CO2 fuels such as hydrogen and other much cleaner biofuels. Even here there are difficult choice to make – biofuels compete with food production, and in a world of growing hunger, what takes priority – the climate tomorrow or survival today? That too is society’s challenge to answer. What is clear is that we will go from a single fuel type – diesel – to diversified fuel types in the future. If it’s a choice between extra complexity to make the environment better, then it’s a challenge we are happy to accept!

At Yanmar we take global food scarcity seriously. We are applying our ‘no waste’ philosophy to supporting farmers with precision agricultural solutions. We have developed a recycling machine that takes waste food, dries and processes it by microbe, and results in a nutrient rich fertilizer. The perfect example of resource circulation.

Meeting society’s challenges

So, meeting the goals of our Green Challenge will take until 2050 to achieve. There is no short cut. We are optimistic about a carbon free future – but also realistic about what is possible – and how fast it can become a reality.

These ideas come from a heartfelt passion to build something good for society and the environment. Our purpose is to meet society’s challenges with intelligent solutions. We’re committed to green being the new color of business.

 

 

 

 

Shiori Nagata, CSO (Chief Strategy Officer) and member of the Board at the Yanmar Group

 

www.yanmar.com

British start-up’s ‘Peak XV’ tunnel demonstrates the potential of a radical new construction method to transform urban planning – by building underground infrastructure faster, more affordably and more sustainably than current techniques.

hyperTunnel, the British technology company innovating underground construction, has revealed the world’s first entirely robot-constructed underground structure, built at its R&D facility in the North Hampshire Downs.

hyperTunnel’s completely new automated construction method is designed to build tunnels more than 10 times faster and at half the cost of conventional methods. The approach is significantly friendlier to the environment and will use sustainable materials such as low-carbon concrete. Without any human needing to enter the structure during construction, the hyperTunnel method could transform safety in the tunnelling industry.

Using swarm construction methods according to a digital twin of the tunnel, a fleet of ‘hyperBot’ robots enters the ground via an arch of HDPE pipes. Once inside, the robots 3D-print the tunnel shell by deploying construction material directly into the ground. The 6 metre-long, 2 metre-high and 2 metre-wide Peak XV ‘pedestrian-scale’ tunnel has been delivered as part of a project for Network Rail and revealed at the British Tunnelling Society Conference & Exhibition in London (October 11th & 12th).

The Network Rail project has been demonstrating the hyperTunnel process, investigating the technologies that are key to low-disruption tunnel repairs for the UK’s regional railway infrastructure, which includes approximately 650 Victorian age tunnels.

David Castlo, Network Technical Head (Mining and Tunnels) at Network Rail, said: “Our large portfolio of Victorian tunnels requires increasing levels of work to meet the needs of the railway network. However, we want to reduce the level of disruption to our passengers so we are constantly searching for new approaches to enlarging or repairing tunnels that reduce the length of time a tunnel will be closed to trains. Peak XV moves us a step closer to that goal and, crucially, with a method that reduces workforce safety risk.”

Steve Jordan, co-CEO and co-Founder of hyperTunnel, said: “To unveil our first large scale demonstration tunnel is a big step, not only for hyperTunnel, but for the tunnelling and construction industries which are eagerly anticipating the readiness of our approach to use, as appropriate, in their global projects. While using robots exclusively to build underground structures is dramatically different, the contributing technologies, such as digital twins, robotics, 3D printing and digital underground surveying, supported by AI and VR, are all well-proven in other industries. In fact, the hyperTunnel in-situ method is all about de-risking construction projects.”

Earlier this year, hyperTunnel received funding of 1.88 million Euros from the European Innovation Council (EIC) Accelerator scheme, Europe’s flagship innovation programme. The company also received a financial investment from VINCI, a global leader in concessions, energy and construction businesses.

 

 

As the UK Construction industry works towards reducing carbon emissions, John Smith, technical director at Donaldson Timber Systems, discusses why embodied carbon is critical to its success.

 

 

The journey to Net Zero Carbon homes is well underway, with the first Building Regulations changes already in effect as we work towards the Future Homes Standard.

From 2025, newly built homes will need to be ‘zero carbon ready’, with a 75% reduction in carbon emissions to 2021 levels in England and Wales, and a 57% reduction in Scotland.

Reducing the requirement for energy in the home is the first step, before introducing low and zero carbon energy sources to provide heating and power. Fossil fuel heating is likely to be banned – or at least carry a significant penalty – in new homes, with a shift to new heating systems like air source heat pumps. These heating systems are only efficient with a high performing building envelope, so the introduction of a Fabric Energy Efficiency measure within these latest changes is a necessary, and welcome step.

At Donaldson Timber Systems (formerly Stewart Milne Timber Systems), we’ve been advocating for this build method for over 15 years. Our BOPAS Plus accredited and BBA certified Sigma® II Build System is designed to achieve superior levels of fabric performance, suitable for projects which are seeking to achieve the very highest fabric efficiency and airtightness standards.

 

Embodied carbon

While the Future Homes Standard is a much-needed step in the right direction, more clarity is required on what it means to be carbon neutral. When we talk about ‘zero carbon’, we should really be thinking about the cradle to grave impact of the build and the unintended consequences along the way.

For us, the most crucial factor when it comes to reaching true zero carbon, is embodied carbon. Embodied carbon is the total greenhouse gas emissions generated in production and manufacturing of an asset. It can be calculated in two separate elements: from raw material extraction through to construction of the building on site, including fuel and power for transport, factories and plant; and end-of-life emissions from demolition, transport from site and recycling / landfill.

In 2021, the UK Green Building Council (UKGBC) developed the Whole Life Carbon Roadmap for the Built Environment, which indicates that the impact of embodied carbon is set to increase and will form over half of built environment emissions by 2035. Despite this, embodied carbon emissions are currently unregulated in the construction industry, with only voluntary measurement and mitigation required.

In a new home completed to 2021 standards, embodied carbon from the construction and end of life demolition and disposal is around 15% of the whole life carbon emissions, with the rest from the operational heating and power. With a target to reduce emissions by 75% through operational carbon reductions, the embodied carbon becomes much more significant at up to 60% of the whole life emissions.

It is therefore crucial that the embodied carbon of new building fabrics designed for 2025 standards are understood, to ensure that any savings in operational carbon are not offset by the introduction of a building fabric with high embodied carbon.

 

Time for Timber

When we factor embodied carbon into the zero-carbon journey, timber really comes into its own. As the only naturally renewable building material, timber build solutions are undeniably the most sustainable form of construction. Using a timber frame build system for a 2021 new-build home reduces the embodied carbon by around five tonnes, compared to a masonry construction home of the same fabric performance. This carbon saving will undoubtably increase as the building fabric performance is increased to achieve 2025 levels.

Timber frame homes are more environmentally friendly during the build, when the building is in use and throughout its lifetime. Timber can also lower or offset its embodied carbon thanks to sequestration – absorbing atmospheric CO2 while the tree is growing and storing it until the timber is incinerated or goes to landfill at the end of its use. Around one tonne of CO2 is stored in every m³ of timber.

While we’ll continue to campaign for the legislation of embodied carbon, many organisations will reach the conclusion that they need to consider the full process to meet their corporate sustainability goals. In recognition of this, we’re working with our customers to help measure the sequestered and embodied carbon for all our build systems.

Through experience, measurement, and science, we can demonstrate that timber offers an ideal solution to achieve true net zero carbon targets. One day, all homes will be built this way.

 


DONALDSON TIMBER SYSTEMS

 


Nick Cowley, CEO of MGI, discusses his company’s efforts to develop a detailed roadmap for achieving zero emissions.

The snowballing climate crisis has introduced us to a long list of new words and concepts over the last ten years.
Recently, I’ve been thinking about one of the latest – ‘greenwashing’.
Greenwashing is an increasingly common term used to describe when businesses claim to be taking action to reduce their impact on the environment, but aren’t.
It doesn’t necessarily mean they’re not doing anything. It just means that whatever actions they are taking don’t go anywhere near far enough, and are done mostly for the marketing value rather than to help the environment.
The pledges they make are very limited, very vague, and often not evidenced – which starkly contrasts with the PR spin, which suggests they’re committing to radical action that will drastically cut their carbon footprint.
That’s obviously a bad thing. To prevent catastrophic global warming, developed countries around the world need to reach net-zero as soon as humanly possible.
But I’m not here to point fingers. In fact, I think we’ve all been guilty of greenwashing to some extent in recent years.
As businesses, we’ve highlighted very small improvements we’re making, or talked vaguely about our desire to become more sustainable, and trumpeted it as sign of our commitment to sustainability.
But now I’ve come to believe we need to be going much further – and getting much more specific.

Towards a concrete plan

That’s why, at Euramax, and at MGI more generally, we’re working on a concrete plan for how we’re going to achieve net-zero.
I can understand why some companies are still shying away from this. It’s a huge amount of work. The scale of the change required is extremely daunting – and at times, it can be a very uncomfortable process.
It requires you to start by acknowledging where you’re at now – and there’s no way around it, as construction and manufacturing businesses, our carbon footprint is very large. That can be demoralising.
But increasingly, having a specific, point-by-point timetable for decarbonising your operations isn’t just going to be something you need to have for moral reasons – although that should be enough.
Soon, it’ll become a basic requirement for winning business.

First steps

At Euramax and MGI, we’re only at the very beginning of our net zero journey.
We’ve recently hired a dedicated Carbon Reduction Analyst to the team. Qualified in geography, Matthew Williams is tasked with planning, designing and developing our decarbonisation strategy.
We’re also starting to make small steps towards net zero. We’re now zero-landfill – none of our waste material gets sent to landfill, and is all recycled.
We use 100% renewable energy. We’ve installed solar panels on our trucks, saving 2.5 tonnes of carbon every year.
We’re also in the process of swapping out lightbulbs across our 205,000 square foot  ises for more energy efficient alternatives – equalling savings of 20.13kg of carbon dioxide every hour.

A long road

None of these changes are revolutionary – if we claimed they were, we’d be guilty of exactly the sort of greenwashing I talked about earlier.
But they will form the part of a detailed, specific plan for taking this business from where it is now to the point it produces no carbon emissions whatsoever – or that what little emissions it does produce can be easily offset.
Net zero is a long, daunting road. But for the sake of our grandchildren, it’s one every business and every sector of the economy has to walk.
So I’d encourage businesses across our industry to start making concrete plans for achieving it today.


For more information, call MGI on 0330 1340290

or CLICK HERE to visit the website

 


 

Aeromine’s patented innovative solution generates up

to 50% more power than other sustainable

energy options at the same or lower cost.

 

Why the World needs a New Wind Energy Solution

Renewable energy is crucial to mitigating climate change and creating a path to energy independence.  Yet current rooftop options, such as solar panels and legacy small wind turbines, are limited in how much energy they can produce, require large footprints, and have relatively short life cycles.

Aeromine’s innovative solution generates up to 50% more power than equivalent solar solutions harvesting the best performing renewable energy source available.

Aeromine performs under the most extreme weather conditions and produces power when energy demand is greatest.

The Aeromine Difference

Aeromine’s patented aerodynamic design captures and amplifies building airflow in wind speeds as low as 5 m.p.h., similar to the airfoils on a race car. Unlike turbines that require rotating rotor blades and many moving parts, making them prone to maintenance issues, the motionless and durable Aeromine solution generates more energy in less space.

Aeromine is designed for installation on buildings with large flat rooftops such as :

  • Warehouses and Distribution Centers

  • Manufacturing Facilities

  • Office Buildings

  • Multi-Family Residential Developments

  • Big Box Retail


Designed to integrate seamlessly with existing solar solutions,

Aeromine is sleek, silent, and easy to install, making it a cost-effective

and space-efficient renewable on-site energy solution.

A single Aeromine unit provides the same amount of power as up to 16 solar panels.

 


Creating a Better Way to Harvest the Power of Wind

 

Understanding the untapped potential of wind energy and limitations of existing rooftop energy options to capture it, Aeromine’s founders envisioned a better solution that would be much more productive. After significant research and development, they created the patented airfoil technology behind Aeromine.

The technology is a major leap forward from legacy distributed wind turbines that are ill-suited for most rooftop applications. Aeromine’s founders have created a much more effective way to harness even moderate wind to create energy for large, flat rooftop buildings such as warehouses, data centers, office, and apartment buildings.

 

www.aerominetechnologies.com

Uponor has supplied high performance multi-layered composite (MLC) piping to offsite building solutions specialist, Elements Europe, as part of the manufacture of 329-bathroom pods for the new Manchester city centre £60m Clayton Hotel development.

Situated in the prime location of Portland Street in the centre of Manchester, the luxurious four-star hotel replaced a 50-year-old office block and is now operated by the Dalata Hotel Group, Ireland’s largest hotel group which is currently expanding its presence into the UK.

Opting to manufacture bathroom pods offsite meant that the main phases of the hotel could be built rapidly. Uponor worked closely with the Elements Europe’s M&E manager and design team to engineer a new solution that required fewer fittings than a traditional system, maximising efficiencies by saving on both cost and installation time.

Uponor’s MLC (Multi-layer Composite) pipe system was used in the construction of the pods as it offers many installation benefits that were crucial for the fast delivery even of a hotel to this scale.

Consisting of an aluminium core layered inside and outside with temperature resistant polyethylene, the MLC system offers all the benefits of a traditional metal system, such as strength and form stability, combined with the best performance features of modern plastic polymers, such as corrosion resistance and flexibility. With such a wide range of fittings available, the MLC system offers the engineers complete design freedom so they can optimise the end product for their customers.

This unique seamless pipe construction means that the flexibility of the pipe is unmatched and bends were formed by hand, removing the need for elbow joints or additional fittings. By requiring minimal fittings and joints, MLC pipe helps to eliminate the risk of connection failures and leaks, which improves the integrity of the system. Adequate water pressure, as well as minimised risk of connection failures, are also critically important for taller more extensive structures, such as Clayton Hotel, that have demanding water requirements.

 

Paul Whittall, Territory Sales Manager at Uponor, said, “With a successful working relationship spanning 10 years, we were able to work closely with Elements Europe’s M&E manager and design team to engineer a solution that required fewer fittings than a traditional system, maximising efficiencies and saving on both cost and installation time. The MLC pipe was an essential part of the Elements Europe specification for the bathroom pods in this prestigious Clayton Hotel project due to its flexibility, speedy installation and superior insulation qualities.”

“Overall, our strong partnership with Elements Europe, combined with the meticulous offsite construction process, meant that installation ran smoothly, the project kept to timelines, and the high design and quality standards expected of the Clayton Hotel brand were maintained.”

 

CLICK HERE to find out more

 

 

 

Following their first collaboration in 2007, CHYBIK + KRISTOF and KOMA Modular conclude their collective work on the Modular Research Centre, showcasing an innovative use of modular structures by altering conventional systems. Pushing the boundaries of standard modular architecture, the new research centre creates transparency and openness within the local community while serving as a think-tank presenting new concepts and possibilities of modular buildings.

CHYBIK + KRISTOF (CHK) announce the completion of the newly designed Modular Research Centre with KOMA Modular, a Czech module manufacturer, located in Vizovice, Czech Republic. Latest in a series of collaborations, the recently completed 170 m² research centre acts as a think-tank – an innovative space to challenge and expand on existing notions of modular construction. Situated at the edge of the KOMA complex, the new research centre carefully integrates the factory into its surrounding environment while creating a large semi-public social gathering square contributing to the employees’ liveliness and progressive working culture. The one-story building allows passers-by to view the factory from the street level, further enhancing an accessible, transparent, barrier-free area.

The partnership between CHK and KOMA began in 2014 by creating a master plan for the entrance and public area consisting of three modular buildings. The master plan demonstrates a strategic configuration design of the factory’s entrance, expanding on public space, in which each structure unveils modular versatility. Following the completion of the Modular Cafeteria in May 2014, CHK designed the Czech pavilion at EXPO 2015 in Milan, which was later converted into an office building for KOMA. The newly completed research centre (2022) presents the third and final modular design, rooted in the concept of rotated containers functioning as columns, enabling an architectural malleable space to further expand on the notions of modular architecture.

Set to become an innovation hub for the factory complex to develop and explore new undiscovered building methods with modules, the research centre forms an adaptable system that can meet multi­purpose needs. Acting as an idea generator, the building is an important meeting place for all professionals to create innovative and special products, consequently becoming a default gathering point and evolution center for the future of modularity. Keeping in mind the structure’s principal function, it is further underlying the vital element of transparency reflected in its building. Creating a complex that is open and welcoming to the local community confidently reflects on the principle of new concepts envisioned to form inside the rotated containers of the building.

Created as a prototype of a new and adaptable modular system, the research center underlines the studio’s dedication to expanding the limitations of modular architecture and engaging in supporting local communities. Putting the focus on crafting new shapes offering unrestrained modularity and showcasing an innovative system of multifunctional modular shapes, the studio is purposely shifting old paradigms and expanding on the typical rectangular construction to foster a transparent working environment. Bypassing the restriction of the customary use of right-angled units placed side by side, the research centre varies from a standard model in the basic re-imagination of the use of modular structures, making it a user-friendly model for the future of modular architecture.

Containing three main module elements, the floor, the container, and the roof units, the composed space creates a new unique system – spatial units containing the facilities are leveled onto the planar flooring modules, which are anchored to the foundation, functioning as columns. Placed in between the containers and the roof, vast window surfaces draw in an abundance of light, keeping the workplace open and connected to the exterior space.

The juxtaposition of the main modules and glass surfaces forms an all-inclusive spacious open area dedicated to horizontal and vertical working spaces. The area itself is entirely flexible, avoiding negative aspects of large open space offices, and can be readjusted to meet the specific needs of any project, forming multiple adaptable and individual workstations. As a natural continuation of the modularity concept, the furniture design allows the office equipment to be supplemented, changed, and adapted to new needs over time – pieces of equipment can be customized simply by re-connecting the elements. Building materials further aid in reflecting and understanding the innovative modular concept of the research centre, with its perforated surface and visible details used to the maximum extent in their natural form. As a material that KOMA manufactures and uses daily, aluminum was a clear choice for the complex, aiding the understanding of modular build principles easily.

The juxtaposition of the main modules and glass surfaces forms an all-inclusive spacious open area dedicated to horizontal and vertical working spaces. The area itself is entirely flexible, avoiding negative aspects of large open space offices, and can be readjusted to meet the specific needs of any project, forming multiple adaptable and individual workstations. As a natural continuation of the modularity concept, the furniture design allows the office equipment to be supplemented, changed, and adapted to new needs over time – pieces of equipment can be customized simply by re-connecting the elements. Building materials further aid in reflecting and understanding the innovative modular concept of the research centre, with its perforated surface and visible details used to the maximum extent in their natural form. As a material that KOMA manufactures and uses daily, aluminum was a clear choice for the complex, aiding the understanding of modular build principles easily.

chybik-kristof.com

koma-modular.cz

Polypipe Building Services has provided a complex drainage solution for the refurbishment of an ageing tower block with minimal disruption by manufacturing bespoke drainage stacks offsite.

Collaborating with contractors Mulalley and consultants John Rowan & Partners, the Kent-based drainage system company provided prefabricated products adapted to meet the challenges of this 50-year-old building which had been subject to several adaptations over the years.

The combination of expert planning and offsite manufacturing which allows drainage systems to be replaced quickly and efficiently floor by floor, meant the installation team could progress at a rate of two floors faster per day than estimated and allowed residents to remain in their homes.

 

Polypipe Building Services Project Development Manager Graham Hicks said: “Our site visit revealed there were different layouts across the 91 flats, with some having a different bathroom configuration to others within the building which meant creating separate sets of drawings.

“This meant adaptation work was needed which included designing soil stacks with very tight waste connections, providing additional piping connections on the lower floors and a vent pipe for pressure compensation which was needed on the lower floors.”

 

Polypipe’s Terrain FUZE drainage system was chosen because it has been used in more than 300 high-rise buildings for Live stack replacement due to the benefits to residents and contractors working to tight project timelines.

 

Ciaran O’Donnell, contracts manager at Mulalley said: “We have worked with Polypipe Building Services for some time, and value both their expertise in finding the right solution and the efficiency savings of using their Advantage service to produce prefabricated stacks that are easier to fit on site.

“In the case of Henniker Point, Polypipe’s team was a great help in making sure we could

plan for the unique layout of the building.

“The ease of installation meant our team could progress faster because they were not assembling loose materials onsite which means less disruption for residents and a more efficient project schedule for the client.”

 

For more information about Live Stack replacement and the Advantage Service from Polypipe Building Services go to www.polypipe.com/polypipeadvantage