Urban biodiversity: place design for people and nature

Building design
Sustainable urban planning promotes biodiversity: How the design of urban spaces strengthens the coexistence of people and nature. Photo: nathalieburblis via pixabay

Sustainable urban planning promotes biodiversity: How the design of urban spaces strengthens the coexistence of people and nature. Photo: nathalieburblis via pixabay

In times of advancing urbanization, the promotion of biodiversity in cities is increasingly recognized as the key to a sustainable and liveable future.

A recent study by the Technical University of Munich (TUM ) shows how the targeted design of urban spaces can not only increase people’s well-being, but also optimize the habitat for plants and animals. This article sheds light on how the urban planning of tomorrow will benefit both people and nature by focusing on biodiversity and ecological sustainability.

Biodiversity – the diversity of animal and plant species – is the basis for stable and resilient ecosystems. In urban areas in particular, which are characterized by sealing and high building density, it is becoming increasingly important to promote this diversity. Species-rich green spaces not only help to improve the urban climate, but also strengthen the human immune system, promote well-being and have positive effects on the microbiome, the microbial organisms that live in and on the human body. These findings underpin the urgency of focusing environmental design in cities more on biodiversity.

The benefits of a biodiverse environment are far-reaching: studies show that green spaces can reduce stress levels, improve air quality and increase the quality of life. Especially in densely populated urban areas, green oases are essential for the mental and physical needs of residents. Urban greenery therefore not only has an aesthetic function, but also makes a real contribution to people’s well-being.

As part of an extensive study, TUM researchers have analyzed 103 public spaces in Munich for their biodiversity. The aim was to find out how different design elements such as plant species, soil composition and proximity to natural habitats influence the occurrence of flora and fauna. The results show a clear picture: significantly more species settle in places that have been deliberately and differentially landscaped than in largely sealed areas.

One example: on the heavily sealed Marienplatz, the researchers found only 20 species, including some insects and a few birds. The Pfrontener Platz, which was equipped with trees, bushes and lawns, was quite different – 156 species, including 21 bird species, were recorded here. This study makes it clear that more greenery in the city, especially a careful selection of plant species, plays a key role in biodiversity. The researchers also pointed out that the size of the area also plays a role – larger areas offer more space for different species to colonize.

The research findings underline that not every type of green space has the same positive impact on biodiversity. While lawns generally benefit many species, especially ground-dwelling organisms that serve as food for larger animals, trees and shrubs are particularly important for certain animal species. Varied planting that provides different habitats and food sources is therefore crucial for promoting biodiversity.

Combined green spaces that combine trees and shrubs with open lawns and flowering plants are particularly beneficial. This mixture creates a diverse habitat for different species and makes it possible to specifically promote biodiversity in the city. The choice of plants also plays a role: native plant species are often better adapted to the local climate and therefore provide a better habitat for native fauna.

In addition, different tree species can also play an important role as they provide different food sources and habitats for animals such as birds, insects and small mammals. Vertical greening, such as green walls or roofs, can also create additional habitats, especially in densely built-up areas.

A central point of the study is that the design of public spaces should not be based on a “one-size-fits-all” approach. Every place has its own characteristics that need to be taken into account when planning. The needs of the resident animal species and the climatic conditions of a district play a major role in determining which plants and structures are suitable for promoting local biodiversity.

A practical example: if you want to attract specific bee species, you should not only plant nectar-rich flowers, but also provide open areas for nesting. As bees prefer warmth, city center areas with sufficient sunlight are also good locations for such measures. It also makes sense to create artificial nesting opportunities for birds or bats in order to further promote biodiversity. The focus should not only be on the visible aspects of nature, but also on the promotion of microhabitat structures, such as compost heaps or dead wood, which serve as habitats for many animals.

The results of the TUM study make it clear that a lot can be achieved with just a few targeted measures. Large-scale redevelopment is not always necessary; it is often sufficient to design existing areas in such a way that they promote biodiversity. Integrating natural elements into urban planning is therefore a simple but effective way of not only improving the quality of life of city dwellers, but also making an important contribution to the preservation of biodiversity.

The urban planning of the future must therefore focus on the interaction between humans, animals and the environment. A sustainably designed urban landscape not only offers people a better quality of life, but also promotes the preservation of valuable ecosystems and helps to combat the climate crisis. The TUM study provides an important impetus to actively promote this change in urban planning.

The targeted promotion of biodiversity in urban areas is not a luxury, but a necessity. Cities that incorporate the needs of flora and fauna into their planning not only create liveable spaces for their residents, but also make an active contribution to preserving our environment. By designing public spaces sustainably, cities can not only become greener, but also more resilient to the challenges of climate change.

Sustainable cities are characterized by their ability to combine nature and urban infrastructure. When nature is considered as an active part of urban planning, a space is created that not only promotes biodiversity, but also benefits the social and cultural values of a community.

You can find out more about the results of COP15 and the global efforts to protect biodiversity in our article on the subject – read on here.

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Designing wind energy: Architects between nature and technology

Building design
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Impressive shot of a large white building with a high spire, photographed by Mohammed Nasim

Shaping wind energy? Sounds like provincialism, concrete and protest. But if you take a closer look, you will realize that the future of wind power is an architectural, technical and social challenge of European significance. Architects are suddenly caught between the aesthetics of nature, the art of engineering and the energy transition. What can they contribute if wind farms are to be more than just monocultures of steel in the future? And: Are Germany, Austria and Switzerland ready for the next generation of wind energy?

  • Wind turbines are shaping the landscape and becoming an architectural statement – with the growing influence of designers.
  • The DACH region faces the task of integrating wind power in a structurally, technically and socially acceptable way.
  • Innovations in materials, turbine construction and digital planning are fundamentally changing the design process.
  • Artificial intelligence and BIM are revolutionizing site selection, operation and maintenance – and demanding new skills from planners.
  • Sustainability is a must: from carbon footprints to species protection, the requirements are becoming more stringent.
  • Architects must mediate between acceptance, aesthetics and function.
  • Criticism of the current approach to wind energy: lack of design, lack of participation, regulatory proliferation.
  • Visionary concepts show that wind power and good architecture need not be a contradiction in terms.
  • The debate is taking place internationally – with growing pressure to innovate coming from Scandinavia, the Netherlands and the Far East.

Wind power in the DACH region: between expansion target and acceptance crisis

Wind power has developed from a niche topic to a political issue in Germany, Austria and Switzerland. While Germany has set ambitious expansion targets and is mass-producing wind farms, Austria remains cautious and Switzerland is hesitant about large-scale expansion – the resistance is too great, the criticism of landscape destruction and lack of co-determination too loud. The current situation is a paradox: on the one hand, wind energy is seen as the backbone of the energy transition, while on the other, projects are regularly blocked by citizens’ initiatives, nature conservation associations and local authorities. The real problem is rarely the technology, but almost always the design. Wind turbines are seen as foreign bodies, as anonymous industrial objects in the open landscape. The role of architects? Long marginalized, they are now urgently needed – as mediators between technology and context.

The pressure is greatest in Germany. The Federal Republic wants to obtain the lion’s share of its electricity from wind power by 2030, but approval procedures take years and public acceptance is declining. In Austria, the challenges are similar, but the topography and the importance of landscape conservation make the issue even more sensitive. In Switzerland, wind energy is discussed almost exclusively in the context of the Alps, where sensitivity to interference is particularly high. Anyone who talks to planners, authorities and energy companies always hears the same credo: without new design approaches, wind power in Central Europe will reach its social and ecological limits.

But what does this mean in concrete terms? In future, sites for wind farms will no longer be allocated solely on the basis of wind potential and grid connection, but must be integrated into local cultural spaces, respect visual axes and seek dialog with local residents. The time of the anonymous standard turbine is over. Design competitions, participatory planning processes and design concepts are gaining in importance. Anyone who sees wind power as a purely engineering discipline has not recognized the signs of the times. It has long been about more: about identity, appreciation and the sustainability of entire regions.

The debate about wind energy in the DACH region is therefore a litmus test for the role of architecture in the age of the energy transition. Those who continue to dismiss design as a “nice to have” will fail. The call for architectural quality is not a fad, but a necessity – for acceptance, ecology and regional value creation. The reality? Engineering offices still dominate, but this is changing rapidly. The first research laboratories are being set up at universities, local authorities are holding design competitions and manufacturers are discovering the topic of branding.

The question remains: Are architects ready to enter the field of wind energy? The answer is a cautious yes – but the profession needs to evolve. Anyone designing wind power today needs technical expertise, communication skills and the willingness to work on an equal footing with a wide variety of stakeholders. The days when a wind farm was planned solely on the basis of economic criteria are over. Welcome to the new reality between nature, technology and building culture.

Innovation and digitalization: wind turbines as high-tech structures

Anyone who believes that wind power is a mature technology is vastly underestimating the innovative dynamism of this industry. The development of new turbines, foundations and rotors is running at full speed, driven by efficiency pressure, cost reduction and the goal of working economically even in difficult locations. For architects, this means that the planning principles are constantly changing. Today, each plant is individually modelled, optimized and designed using complex digital tools. Building Information Modeling (BIM) and digital simulation environments are now standard. As a result, design processes are data-driven and variants can be checked in real time. What used to be considered gray theory has long since become practice – provided you master the tools.

Artificial intelligence is the next game changer. It helps to precisely analyze wind conditions, identify optimal locations based on huge data sets and even predict maintenance cycles. Modern wind farms have long been networked systems that can react to weather, grid load and environmental conditions in real time. This is where architecture, engineering and IT merge to form a new discipline. For planners, this means that without digital expertise, they are quickly left behind. Traditional design thinking is being supplemented by algorithmic optimization, and visualizations are becoming interactive decision-making tools.

But digitalization is not an end in itself. It opens up the opportunity to design wind turbines not only efficiently, but also in a context-sensitive way. Digital tools allow visual axes to be simulated, shadows to be minimized and integration into existing infrastructures to be planned precisely. Participatory platforms make it possible to involve citizens at an early stage and integrate their concerns into the design process. This shifts the role of the architect from lone fighter to moderator of complex, digitally supported planning processes.

The innovation curve is pointing steeply upwards – also for materials. New materials such as carbon fiber-reinforced rotor blades, hybrid tower structures and modular foundations are opening up scope for design and making wind turbines lighter, more stable and more durable. The trend is moving away from a uniform look towards typological diversity: from low-noise turbines for residential areas to floating offshore turbines and vertical axis constructions for urban spaces. The design possibilities are growing – if architects are prepared to embrace the technology.

And what is happening internationally? Countries such as Denmark, the Netherlands and South Korea are demonstrating how digitally supported planning and creative ambition go hand in hand. Competitions, design guidelines and open data platforms are standard there. The DACH region can catch up here – if politicians and the industry have the courage to see digitalization as a design tool and not as a threat to established processes. Those who get on board now can play a decisive role in shaping the wind power of the future.

Sustainability reloaded: challenges and solutions for green wind power

Wind energy enjoys a reputation for being climate-friendly and low-emission. But the calculation is not quite that simple. The ecological footprint of modern wind turbines begins with the extraction of raw materials and only ends after dismantling. Anyone who takes sustainability seriously must consider the entire life cycle – from the choice of materials and production to dismantling and recycling. There are immense challenges here, but also opportunities for architects and planners. The CO₂ balance is not only decided at the electricity meter, but also at the design table.

The question of materials remains a key problem. Rotor blades made from composite materials are light and efficient, but difficult to recycle. New research is focusing on biodegradable resins, alternative fibers and recycling concepts – with initial success stories from Denmark and Germany. A lot is also happening in tower construction: wooden towers, modular reinforced concrete solutions and recycled concrete are being tested. Architects can exert influence by insisting on sustainable materials and transparent supply chains. The era of pure cost optimization is over – sustainability is becoming a competitive advantage.

Species protection is another hot topic. Wind farms are considered a danger to birds and bats, but intelligent shutdown systems and adaptive controls can minimize the risk. This shows that technical innovation and design integration are not opposites, but two sides of the same coin. Integrating wind turbines into landscape planning at an early stage, respecting visual axes and avoiding ecological hotspots can reduce conflicts and create acceptance. Architects are called upon to actively shape this interface between technology and nature.

Another field: social sustainability. Wind energy projects often meet with resistance due to a lack of participation and transparency. Those who involve the population at an early stage, create opportunities for identification and make design quality visible can reduce reservations. This is a great opportunity for architects: They can turn wind turbines into landmarks that create identity instead of destroying the landscape. The future belongs to projects that understand acceptance as part of sustainability – and make design a civic duty.

Finally, the challenge of dismantling remains. Many of the facilities in operation today are approaching the end of their service life. The issue of dismantling and subsequent use is becoming the crucial question for wind energy. Architects can show new ways forward here: from temporary structures and modular construction methods to concepts for conversion and continued use. The time of the eternal monoculture is over – the future of wind power is circular, flexible and challenging in terms of design.

Architects between criticism and vision: designing instead of managing

The architecture of wind power is in a paradoxical situation: it is omnipresent, but almost invisible. Hardly any other infrastructure project has such a massive impact on the landscape – and is so little understood as a design task. The result: wind farms are rarely places of identification, but mostly symbols of heteronomy and technocracy. Critics accuse the industry of neglecting design, bypassing participation and making standards absolute. This does not have to remain the case. The visionaries among architects are calling for a new culture of wind energy – one in which design is seen as added value, not a cost factor.

There are prominent examples to the contrary. In Denmark, the Netherlands and increasingly also in Germany, wind farms are being built that enter into a dialog with the landscape, history and population. Artistic interventions, participatory design processes and regional design specifications show that wind turbines can be more than just functional technical structures. The architectural signature becomes a trademark, an invitation to identify with the energy transition. In urban contexts, vertical wind towers and hybrid façade systems are setting new standards for the integration of renewable energies into the cityscape.

But the criticism remains: Many planning processes are not transparent, there are few opportunities to have a say and the scope for design is restricted by standards and tenders. Anyone who sees wind energy as a social responsibility must question these structures. The demand: more competitions, more experimentation, more regional diversity. Architects can – and should – play the role of mediator between technology and society. This also means dealing with the downsides of wind power: Land consumption, species extinction, social division. Only those who lead this debate can shape it credibly.

The international debate is putting the DACH region under pressure to innovate. In Scandinavia, the Netherlands and Asia, wind farms are being built that act as cultural and tourist attractions. Architecture is becoming a value-adding factor there, not a cost problem. The DACH region needs to catch up – and can learn from the pioneers. The opportunity: to see wind energy as part of the building culture, not as a foreign body. This requires courage, creativity and the willingness to question established routines.

The vision? Wind turbines that are landmarks, create identity and make the dialog between man, technology and nature visible. Architecture can help to bring wind power out of the defensive and position it as a designable technology of the future. The time for excuses is over. Those who only manage wind energy will be slowed down. Those who shape it will give the energy transition a face.

Conclusion: Wind energy needs architecture – now!

Wind energy is more than just technology and statistics. It is a social project that can only survive with architectural and planning quality. The challenges in the DACH region are enormous: acceptance crisis, sustainability pressure, innovation backlog. But this is precisely where the opportunity lies for architects. Those who take design seriously, use digital tools and seek dialog with all stakeholders can create wind turbines that are more than just foreign objects. The future of wind energy will not be decided at the engineer’s drawing board, but in the interplay between technology, nature and building culture. The time to understand wind power as a design task is now. Those who miss it will be caught in the headwind.

More planning security and efficiency – the GROHE Rapido shower frame

Building design

The GROHE Rapido shower frame is an efficient solution among concealed shower systems. Credit: GROHE

The shortage of skilled tradespeople is presenting planners and architects with new challenges. Solutions that minimize installation effort and sources of error are particularly in demand for complex serial installations – such as concealed shower systems. The new GROHE Rapido shower frame is designed for speed, safety and simplicity and thus offers a number of advantages over conventional concealed shower systems.

With an installation depth of just 77 mm to the front edge of the tile and 67 mm to the front edge of the frame, the system is suitable for installation in almost any drywall. This makes the Rapido shower frame a versatile solution that can be easily used in both new builds and retrofits.

Another advantage of the GROHE Rapido shower frame is the greatly reduced installation time. Conventional concealed shower systems are often associated with complex and time-consuming installation processes and a corresponding amount of training. The pre-assembled components – such as the Rapido SmartBox and mixed water pipes – as well as the factory-tested tightness reduce the installation process to just a few steps that can be carried out by one fitter alone. Compared to the installation of a classic GROHE concealed shower system, this reduces the installation time by up to 60 percent.

The risk of typical installation errors is significantly reduced thanks to the sophisticated design and the pre-assembled and tested components. This increases planning reliability and minimizes the likelihood of problems after installation, especially in complex projects with series installations. GROHE provides a ten-year manufacturer’s guarantee, which underlines the confidence in the durability and reliability of the product.

Various bundles for pre-installation simplify the ordering process for the shower frame. Depending on the project, the shower frame can also be combined with all concealed fittings that are compatible with the pre-installed GROHE Rapido SmartBox.

GROHE offers two different frame variants – the mono shower frame for a single-jet overhead shower and the duo shower frame for a dual-jet overhead shower – each in combination with a hand shower. This gives you the flexibility you need to find the right model for every project.

www.grohe.de/de_de/rapido-duschrahmen/