While scrolling through X, I came across a sentence by Ali Kaan: “Turks deserve to live not in cramped apartment flats, but in real Turkish houses with courtyards.” At first glance, the sentence may sound a bit romantic, even a bit assertive… Yet there are some sentences that, before proving their truth, awaken a desire to imagine. That’s what it did for me. Suddenly, I found myself in that stone-paved courtyard from the image, standing beside a flowering tree whose shadow fell softly onto the ground, in front of a house whose wooden windows filtered the morning light gently inside. Then I added a garden behind that vision. A well, a divan, a faint sound of water, vines leaning against a stone wall, a bay window above, a hayat in between, a sofa inside… And then I realized: I wasn’t just thinking about a house; I was imagining a way of life.

Then I decided to prepare a detailed article so that everyone could understand the features of Turkish houses. Of course, I started with research. I encountered drawings, terminology, interpretations of old urban fabrics, and a spatial worldview stretching from Safranbolu to Bukhara. And in the end, I saw this more clearly: the Turkish house is not merely an architectural heritage of the past. It is also a thought written into space about how we might live together, how we should perceive, and perhaps even how we can remain human.

In most modern cities today, buildings rise within their parcels with individual ambitions. Each stands independent, sometimes even in rivalry with the others. In the traditional Turkish city, however, the relationship is different. A house considers not only its own comfort but also its neighbor’s light, the street’s shade, and the neighborhood’s air. That is why, in traditional horizontally developed Turkish neighborhoods, there is said to be a sensitivity that can be summarized as: “one house’s shadow should not block another’s sunlight.”

Today, we often discuss housing in terms of square meters, façade, view, number of rooms, kitchen type, and site amenities. Yet the traditional Turkish house asked this question differently. Rather than “how big should a house be,” it focused on what kind of life a house should carry. This small difference actually transforms the entire architectural approach. Because then the structure ceases to be a shell enclosing a person and becomes an organism that accompanies daily rhythms, shapes the relationship with nature, and invisibly preserves the ethics of neighborliness.

When one thinks of a Turkish house, the bay window usually comes to mind first. White plastered walls, wooden beams, deep shadows under the eaves, stone-paved streets, and sometimes high courtyard walls… Yet trying to understand the Turkish house only through its appearance remains incomplete. Because its strength lies partly in an internal logic not immediately visible from the outside. At the center of that logic is a sense of measure. But this measure is not merely mathematical or geometric. It is also about propriety, rights, climate knowledge, and the subtlety of living.

For this reason, when discussing the Turkish house, one must also discuss the city. Because the Turkish house is rarely independent from the street. It is an organic extension of the urban fabric it belongs to. In most modern cities today, buildings rise within their parcels with individual ambitions. Each stands independent, sometimes even in rivalry. In the traditional Turkish city, however, the relationship is different. A house considers not only its own comfort but also its neighbor’s light, the street’s shade, and the neighborhood’s air. That is why, in traditional horizontally developed Turkish neighborhoods, there exists a sensitivity summarized as: “one house’s shadow should not block another’s sunlight.”

When thinking of Turkish houses, one of the first cities that comes to mind is undoubtedly Safranbolu. Interestingly, while writing this piece, I went back to my own photo archive and revisited the day I first saw Safranbolu. I realized that I first visited this city exactly 14 years ago, on April 21, 2012. Despite the time that has passed, the feeling of that first encounter remains vivid. Even in times when the buildings were not presented as spectacularly as today, Safranbolu evoked deep admiration. Because what was impressive was not just the beauty of individual houses, but the measure, calmness, and elegance of the entire fabric.

Looking at settlements like Safranbolu, this becomes even more concrete. As houses settle on slopes, they do not simply compete to capture the best view. Instead of an aggressive logic that blocks each other completely, there is a composition that steps back, layers, and breathes. That is why these houses do not only look beautiful; they also feel fair.

At this point, it is possible to speak of a silent connection between urbanism and morality. Because the Turkish understanding of the city is not merely a physical arrangement to meet housing needs, but the spatial manifestation of the relationship between people and nature.

Streets are also an important part of this system. Narrow streets are often perceived negatively today. Yet in traditional contexts, narrowness does not necessarily mean congestion. On the contrary, narrow streets create shade, protect pedestrians, and establish a human-scale relationship between buildings and people.

Among the most striking façade elements is undoubtedly the bay window. The bay window is the face of the Turkish house extending into the street. Yet this extension is not aggressive; it is measured. It establishes a relationship with the street, expands the view, and enriches spatial perception, while maintaining a delicate balance between public and private life.

The Turkish house is not merely an architectural heritage of the past. It is also a thought written into space about how we might live together, how we should perceive, and perhaps even how we can remain human.

When we step inside, we encounter another world. The Turkish house does not abruptly throw us into its center; it slows us down. This is why the taşlık (entrance hall) is important. It is a transitional layer between outside and inside—neither fully exterior nor interior.

One of the most important concepts of the Turkish house is the “hayat.” Even its name reveals the intention of this architecture. It is not merely an empty space, but a lived space—a semi-open interface where house, courtyard, and daily life meet.

Connected to the hayat, the sofa forms the backbone of the house. It is not just a circulation space but a shared center where family life converges.

In some regions, the eyvan joins this richness of transitional spaces. It plays a crucial role in climate adaptation, providing shade and airflow, while adding rhythm and ceremony to spatial experience.

The arrangement of rooms continues this philosophy. Rooms are not rigidly fixed to single functions but remain flexible, adapting to different uses throughout the day.

The courtyard and garden are where the Turkish house meets landscape. The courtyard is not a decorative addition but an essential part of life—sometimes even its heart.

Material language reflects the same simplicity. Stone provides solidity and coolness on the lower levels, while wood offers flexibility and warmth above.

Perhaps this is why thinking about the Turkish house is not merely historical curiosity. It also raises serious questions about today’s cities: why do we produce so many buildings, yet so few living environments?

Maybe we cannot recreate the exact houses of the past. But we can reinterpret their principles: transitional spaces, semi-open areas, neighborly rights, climate sensitivity, and the integration of landscape.

For me, this is where the Turkish house becomes valuable. It is not a nostalgic object, but a quiet teacher reminding us that another way of living is possible.

• Perhaps we cannot rebuild the same houses, but we can rebuild the same refinement.
• Perhaps we won’t walk the same streets, but we can help streets remember people again.
• Perhaps not every home will have a courtyard, but every life needs a bit of sky, shade, greenery, and a spatial ethic that considers others.

This is what the Turkish house tells me. And perhaps that is why it belongs not only to the past, but also to the future.

Spot: Mycelium composites are a family of materials that doesn’t fit into the easy shortcut of “everything natural is good.” In the right place they can be genuinely promising; in the wrong place they can turn into something you keep wrestling with.

At a fair once, I picked up a small panel sitting at the edge of a booth. At first touch it felt like “plastic foam”: light, firm, with a matte surface. Then I ran my finger along the edge and the feeling shifted; the cross-section had a tiny fibrous weave, like compressed straw held together not by glue but by… something else. When I brought it closer, there was a faint trace in the smell too—something like damp soil mixed with mushroom. When I pressed the edge it didn’t snap with a “click.” It compressed and came back, yet it also left a thin crack line at the same time. A strange question landed in my head: “Is this alive?” “Alive” might be a little romantic, but it clearly wasn’t behaving like a completely dead material either. It looked like plastic, but it wasn’t plastic; more like biology that had learned how to resemble plastic.

What we call a mycelium-based composite is, in short, using the underground network of fungi (mycelium) as a kind of natural binder to stitch agricultural waste and fibrous residual materials together. Mycelium plays the role of an “adhesive” here: straw, sawdust, hemp shives, coffee grounds—whatever you have—mycelium grows through them and weaves a network. Then that growth is stopped, typically by drying, heating, or a similar process. In everyday language: the material seems to “weave itself” inside a mold.

Until a few years ago, this story mostly circulated in pavilions and design fairs. Visually it is strong; it carries a “natural yet futuristic” aesthetic, and it is easy to narrate: a material born from waste, compostable surface, low energy… But over the last two years, the tone feels like it has shifted. The fair-object vibe still exists, yet it no longer feels sufficient on its own; people are asking for more “performance.” What does it do in fire? Does it absorb sound? Does it change when it sees humidity? Can production be standardized? That question set pushes the material from being a trendy keyword toward real project tables. The literature shows a similar drift: production parameters, inspection and standardization, and building physics (heat–moisture behavior, strength, fire, and acoustics) are being discussed more intensely.

Where does mycelium work, and where does it not?

In landscape practice—especially in the public realm—this question strips away romance quickly. Because landscape has “real-life criteria” that can be unforgiving: vandalism, maintenance budgets (or the lack of them), freeze–thaw cycles, UV, rain, warranties, procurement units, supply chains. Good intentions don’t carry a material on site by themselves.

Plastic feel, organic reality

Mycelium composites can often have a lightness and texture reminiscent of “plastic foam.” Sometimes there is a velvety matte surface; in the cross-section, a fibrous porosity. That porosity looks like a good thing—because it opens doors to lightness and sound absorption—but the same porosity also likes water, holds dirt, and can carry a risk of “denting and staying dented” under impact.

A concrete detail: on one prototype, when I pressed my nail into the surface, a small mark remained. It wasn’t like plastic; it was more like the crust of dry bread—slightly yielding. On another piece, when I rubbed the edge as if sanding, a fine dust appeared; fibers broke and drifted away.

Mycelium composite can partially replace materials in scenarios like: low-load interior surfaces, exhibition elements, decorative partitions, acoustic panels, temporary pavilion skins, packaging-like protective parts… But replacing these is difficult: outdoor seating surfaces that take constant hits, façade claddings that will stay under sun and rain for years, and standardized public furnishings where we expect consistent performance for a long time.

Let’s put two clear sentences down. In an interior environment with controlled humidity, as a temporary exhibition or pavilion element, mycelium composite can make sense; because lightness and form freedom increase installation speed.
And another: if used as a bench surface in a heavily used urban park exposed to rain–sun cycles, it will likely cause headaches; because water, UV, and impact arrive at once, and the material’s “delicate” side becomes dominant.

Water, UV, impact: the material’s three-part exam

Water is one of the most critical topics. Mycelium composites can be prone to water absorption; this raises both the risk of swelling or deformation and the tendency for the surface to stain. Once, a few drops fell on a small sample: the drop darkened the surface instantly and left a mark when it dried. Even indoors, that creates the question “How will this be cleaned?” Outdoors, water is not just water; rain can be acidic, it carries mud, and freeze–thaw cycles can enlarge microcracks.

UV is more subtle. Sunlight changes the color of organic materials; with mycelium composites, the possibility of fading or turning into a chalky texture is often discussed. Meaning the material might lose its first-day beautiful matte look and become more “dusty.” In a landscape project, this transformation affects not only aesthetics but also perceived hygiene; municipal teams might look at it and ask, “Is this dirt, or is this just the material now?”

Impact and intensive use… here the material can oscillate between two behaviors: sometimes it dents and recovers; sometimes it forms a fibrous fracture line. A hard kick, a bicycle bump, a skateboard hit, children stepping on the same spot repeatedly—these are daily realities outdoors. If mycelium composite is not reinforced by high-density pressing, coatings, or similar processes, it can struggle to make peace with that daily life.

The “biodegradation” side is also double-edged. By definition, being able to break down under appropriate conditions is described as a positive feature; but in the public realm, this can sometimes mean “limited service life.” The material’s life cycle needs to match the project’s expected life. In landscape we often assume 10–15 years or more; in some scenarios, mycelium composite may not carry that expectation.

Is it suitable for outdoor furniture? The honest answer is: conditionally. In a semi-open space that is covered, does not receive rain, and is not in direct sun; supported with an appropriate protective layer (a bio-based coating, something water-repellent yet breathable), and with modular part replacement planned, limited use could be considered. But in open areas—especially where vandalism and intensive use risks are high—it usually remains an “experiment”; it struggles to become long-term, standardized urban furniture.

Third clear sentence: In an interior space with an acoustic problem (for example, an activity hall in a youth center), as a wall or ceiling surface that will not take impact, a mycelium-based panel can work; because its porous structure can “swallow” part of the sound energy.

Fire behavior: speaking without saying “non-combustible”

One claim we often hear about mycelium composites is “fire resistance.” Here we need to be careful with language: saying “non-combustible” is risky both technically and ethically. Fire behavior varies depending on the fungal species, substrate, density, production method, and especially the test standard. Some studies discuss results such as the surface charring and slowing flame spread, or heat release being relatively low under certain conditions; but that is not an automatic label for every product.

A landscape parenthesis: in public furnishings, fire risk often comes not as “accident” but as “intent.” A trash bin is set on fire, a bench is exposed to flame, a cigarette butt is left behind. So fire performance should be considered not only as flame spread, but also smoke production, dripping behavior, and whether repair is possible afterwards—more everyday questions, really. Some producers and researchers try fire-retardant approaches using mineral additives, different fiber mixes, or surface coatings; but there is also the “at what cost?” question. Added chemicals can weaken the environmental claim, or alter reuse and compostability scenarios.

Acoustics: the pleasant side of porosity

Acoustics is one of the areas where mycelium composites look like they have a “natural advantage.” With a simple analogy: sound hits a hard, flat surface and bounces back; but when it enters a porous surface, it loses part of its energy through friction in tiny cavities. The fibrous-porous structure of mycelium composites, with the right density and surface design, can support this absorption. So the answer to “Can it be an acoustic panel?” is often “it can.”

But there is a small contradiction. If you seal the surface against water and dirt, you also close pores, and acoustic performance may drop. If you leave the surface open, dust retention and cleaning problems increase. So in acoustic applications, you may need a thin layer that protects without fully sealing, or a secondary solution such as a permeable textile or grille carrier in front of the panel. These details can look minor; in a project, they can be the parts that consume the most time.

Production technique and scale: mold, grow, stop

The most critical difference in producing mycelium composites is this: the material is not merely “manufactured”; to a degree it is “grown.” A fibrous mix placed into a mold integrates as mycelium grows under suitable temperature and humidity. Then growth is stopped; steps like drying or sterilization stabilize the product. At workshop scale this process is flexible and creative—an excellent playground for a designer. In mass production, the same process becomes harder: contamination risk, keeping the same density batch to batch, dimensional tolerances, shrinkage and form loss during drying…

Once, on a piece taken out of a mold, the corners were not as sharp as we expected; it was as if the material had “rounded” them. This can even be aesthetically pleasing, but it creates trouble in connection details. You want to screw into it; the screw tears fibers. You think of anchors; holding strength can be weak. You try adhesive; the surface absorbency prevents uniform bonding. In other words, mycelium composite still tests the designer on “connections and detailing.” This is one reason why standardization talk has increased lately: the material has a beautiful story, but the “safe recipe that everyone can use the same way” is not fully settled yet.

Use scenarios: small scenes of “works / doesn’t work”

Imagine the time pressure of an exhibition build. It’s 22:00 and the pavilion skin has to be finished. The lightness of mycelium panels is gold here: two people carry them, no heavy crane, fast assembly. And the surface’s “mat organic” language absorbs light nicely; it photographs well. Under these conditions, mycelium composite works: short life, controlled indoor climate, low impact. And at the end, a “dismantle and recycle or compost” scenario can come onto the table—of course where it truly goes and how it is processed is a separate discussion.

Now take the same material outdoors. A municipal procurement team looks at a sample bench piece: “What is the warranty period? How is it cleaned? Does graffiti come off? If a part breaks, is there a spare?” These are the real questions of landscape. Mycelium composite struggles here, because answers often start with “under this condition.” If the climate is harsh (freeze–thaw), rainfall is high, sun is intense, vandalism is common… risk grows. In that situation it becomes a headache; because the project stops defining the material’s limits, and the material starts defining the project’s limits.

A third scene: an interior co-working space; high ceiling, reverberation is annoying. The budget for acoustic panels is limited, but there is also a search for a “material with a story.” Mycelium composite can be reasonable here. The panel is placed high on the wall so it won’t take impact; its surface is protected with a permeable layer that won’t trap dust; a certified product with suitable fire performance is selected. Under these conditions it works; because the problem (echo) and the solution (porosity) align well.

A fourth scene, less discussed: the maintenance crew. Spring cleaning, a habit of washing with a hose. Washing a mycelium composite surface with a hose can mean “insisting on water exposure.” The surface darkens, dries with stains, fibers lift at edges. The maintenance crew quite reasonably says, “I can’t deal with this.” And at that point, material selection becomes not only a design issue, but also an issue of maintenance culture. In landscape, a material lives in the hands of the municipality, not on the designer’s table.

The ethics of the material: sometimes good, sometimes just a story

The ethical side of mycelium composites is worth discussing: using agricultural waste streams, the possibility of local production, reducing dependence on chemical binders—these are genuinely hopeful. But the “carbon” narrative may not always be smooth because steps like sterilization and drying require energy; energy source, logistics, scale, and service life change the calculation. Sometimes the “green” look of the material can even become a stage for greenwashing: visually organic, narratively bright, yet with an unclear supply chain and uncertain lifespan. What is needed here is a gentle but clear line: not everything that looks natural is automatically good; what is good is good together with its conditions.

Source Notes

1. Camilleri, E.; Narayan, S.; Lingam, D.; Blundell, R. – 2025 – Mycelium-based composites: An updated comprehensive overview – Biotechnology Advances. L-Università ta’ Malta
2. Motamedi, S.; Rousse, D.R.; Promis, G. – 2025 – A Review of Mycelium Bio-Composites as Energy-Efficient Sustainable Building Materials – Energies. MDPI
3. Lewandowska, A.; Sydor, M.; Bonenberg, A. – 2025 – A Review of Mycelium-Based Composites in Architectural and Design Applications – Sustainability. MDPI
4. Aiduang, W.; Jinanukul, P.; Thamjaree, W.; Kiatsiriroat, T.; Waroonkun, T.; Lumyong, S. – 2024 – A Comprehensive Review on Studying and Developing Guidelines to Standardize the Inspection of Properties and Production Methods for Mycelium-Bound Composites in Bio-Based Building Material Applications – Biomimetics. PMC
5. Le Ferrand, H. – 2024 – Critical Review of Mycelium-Bound Product Development: Barriers to Entry and Paths to Overcome Them – Journal of Cleaner Production. ScienceDirect
6. Madusanka, C.; Udayanga, D.; Nilmini, R.; Rajapaksha, S.; Hewawasam, C.; Manamgoda, D.; Vasco-Correa, J. – 2024 – A review of recent advances in fungal mycelium based composites – Discover Materials. Springer Link
7. Alaneme, K.K.; Okafor, A.U.; Omotoyinbo, J.A.; Bodunrin, M.O. – 2023 – Mycelium based composites: A review of their material properties, biomedical applications and future perspectives – Ain Shams Engineering Journal. ScienceDirect
8. Majib, D. et al. – 2024 – Fungal Mycelium-Based Biofoam Composite: A Review on Growth, Properties, and Application – Progress in Rubber, Plastics and Recycling Technology. ScienceDirect
9. Verma, N.; Jujjavarapu, S.E.; Mahapatra, C. – 2023 – Green sustainable biocomposites substitute to plastics with innovative fungal mycelium based biomaterial – Journal of Environmental Chemical Engineering.

Within today’s smart city vision, urban parks are also being equipped with technological innovations, becoming more sustainable and more user-friendly. Aligned with sustainability goals, smart parks stand out in areas such as energy efficiency, water management, and safety—offering eco-friendly solutions while improving the quality of life for city residents.

In this article, we will explore the smart park concept—an important component of smart cities—and examine the main smart infrastructure elements used in park environments. From advanced sensors to renewable energy units, many features help parks evolve into safer, more efficient, and more enjoyable places. So what exactly are park technologies, and what should an ideal smart park look like? Below, we discuss the core components that make up smart parks, along with their technical benefits and people-centered gains, under clear headings.

Key Smart Infrastructure Elements

1. Smart Lighting Systems

Smart lighting systems involve equipping lighting poles in the park with LED technology and sensors. Motion-sensor lights reduce brightness when no one is around and automatically increase it when someone approaches. Compared to conventional lighting, this provides significant energy efficiency (in some city applications, savings of up to 70% have been reported[1]).

Beyond technical advantages, smart lighting also offers human and aesthetic benefits:

• Safety: Because lighting is used only when needed, parks can feel safer at night; unnecessary brightness in quiet or empty areas is avoided. Visitors often feel more secure thanks to responsive lighting.
• Comfort and environmental friendliness: Since the color temperature and brightness of LED lights can be adjusted, a natural nighttime atmosphere that does not strain the eyes can be created. At the same time, as light pollution decreases, there can be positive effects on both human health and wildlife.

2. Environmental Sensors

Modern smart parks are equipped with a wide range of sensors that continuously monitor environmental conditions. With air quality sensors, temperature and humidity meters, noise sensors, and light-intensity detectors, it becomes possible to track changes in the park environment in real time. If air pollution or noise levels exceed certain thresholds, the system can alert relevant units so preventive action can be taken.

The technical contribution of environmental sensors becomes clear when the collected data is transmitted to a centralized IoT platform. By analyzing this data, data-driven decisions can be made on many issues—from when irrigation systems should operate to how events in the park are planned. For example, if weather sensors anticipate incoming rainfall, the automatic irrigation system can adjust its schedule accordingly.

From a human and environmental perspective, the benefits these sensors can provide are significant:

• A healthier environment: Continuous measurement of air quality in the park supports the actions needed for cleaner air. If air quality declines, awareness can be raised by informing visitors with alerts such as “air quality is low today.”
• Comfort and awareness: Temperature and humidity sensors can trigger measures—such as turning on misting systems during extreme heat—helping visitors cool down. In addition, park managers can adjust lighting and other services based on visitor density.

3. Smart Irrigation Systems

Traditional irrigation methods are usually timer-based and not responsive to actual needs. Smart irrigation systems, however, meet plants’ water needs at the right time and in the right amount through soil-moisture sensors and weather data. By stopping irrigation during rainy periods and increasing it during dry spells, they prevent unnecessary water use and can deliver substantial water savings.

The benefits of smart irrigation can be summarized as follows:

• Water savings: Sensor-controlled irrigation minimizes waste by preventing overwatering. This supports environmental sustainability and also represents economic benefit for the city.
• Healthier green spaces: Lawns and plants that receive neither too little nor too much—but exactly what they need—grow more healthily. Issues such as fungal diseases caused by overwatering or drying out due to insufficient irrigation are reduced to a large extent.

4. Energy Generation Units

Smart parks can become spaces that not only consume energy but also generate it. Solar panels and small-scale wind turbines within the park can cover part of the park’s electricity needs, reducing dependence on the grid. Especially in regions with abundant sunlight, solar panels integrated into lighting poles or shade structures can store energy throughout the day and power nighttime lighting.

The contributions of energy generation units to the park concept are multi-dimensional:

• Sustainability: By using renewable energy, the park’s carbon footprint decreases. A park that partially produces its own electricity becomes an environmentally responsible model by reducing fossil fuel use and the amount of energy drawn from the grid.
• Economic benefit: In the long term, generating part of the park’s own energy means savings on electricity costs. In large parks, energy harvested from the sun and wind can significantly reduce dependence on the grid.

5. Security Technologies

Smart parks are equipped with advanced security technologies to improve visitor safety. Smart camera systems record 24/7 footage at critical points in the park and transmit it to a centralized control unit. With AI-supported cameras, crowd analytics and unusual motion detection become possible. In addition, license plate recognition systems placed at park entrances can monitor vehicle entry and exit. Emergency call buttons positioned throughout the park allow visitors to request help with a single touch in case of a health issue or security threat.

The benefits offered by smart security technologies include:

• Increased sense of safety: The presence of cameras and emergency buttons makes park users feel safer. This can encourage more visitors to use parks even in the evening hours.
• Rapid response: In any adverse situation (for example, a missing child or a medical emergency), the central system is alerted instantly. Authorities can be directed to the location without delay, preventing the issue from escalating.

6. Wi-Fi and Connectivity Points

In the digital age, one element that enriches the park experience is free Wi-Fi access. Smart parks include wireless network infrastructure that allows visitors to connect to the internet. With strong Wi-Fi, working outdoors, accessing online information, or listening to music becomes easier. This infrastructure also forms the basis for digital kiosks, interactive panels, and smart mobile applications inside the park.

The gains of free internet access include:

• Visitor satisfaction: Internet access has become a basic need for many visitors today. Having Wi-Fi in the park allows people to stay longer—working, socializing, or enjoying leisure time—thereby increasing park use.
• Educational and cultural interaction: AR (augmented reality) applications or digital park tours delivered via Wi-Fi can provide interactive information about the site’s history, vegetation, or artworks. In this way, a park visit becomes a richer experience.

7. Smart Furniture

Classic park furniture such as benches, tables, and play areas is also being transformed within the smart park concept. Smart benches are innovative designs that generate their own electricity through integrated solar panels and allow visitors to charge devices such as phones and tablets. For example, some bench models provide USB ports and wireless charging units, enabling visitors to charge their devices while resting in the shade. At night, these benches can also increase the sense of safety by softly illuminating the surrounding area with low-level LED lights.

Some of the benefits of smart urban furniture include:

• Comfort and attractiveness: Visitors are encouraged to spend more time in the park because they can charge their phones, access free internet, or rest in sun-protected areas. This increases the attractiveness of parks as meeting and relaxation spaces.
• Aesthetic harmony: Smart furniture draws attention with modern, stylish designs. Solar-powered benches or illuminated seating units contribute to the overall aesthetic of the park and create a contemporary atmosphere.

8. Waste Management Systems

For a clean park experience, effective waste collection and recycling are essential. Smart trash bins used in smart parks measure fill levels through internal sensors and send real-time notifications to waste collection teams. Solar-powered trash compaction units, in particular, compress deposited waste via an internal mechanism, increasing capacity and sending a “collect” signal only when full. Sensor-based smart bins can reduce waste-collection frequency by up to 80% compared to traditional systems[2]. This can lead to major savings in both labor and fuel.

The main benefits of smart waste systems include:

• Efficient use of resources: Since bins are emptied only when they are full, cleaning staff time is not wasted. As unnecessary vehicle rounds decrease, fuel consumption and carbon emissions also drop.
• Cleaner parks: Fill-level sensors enable intervention before bins overflow. This prevents litter from spreading into the environment, along with bad odors and pest problems. The park area remains orderly and clean.

9. Accessibility Solutions

Another important dimension of smart parks is the innovation they bring to accessibility. Technology is used so that people of all ages and ability levels can benefit from parks equally. For example, audio guidance systems and smartphone applications installed throughout the park can provide directions and alerts based on the user’s location for visitors with visual impairments. Tactile ground markers (raised guidance paths) integrated into walkways create safe routes that visually impaired individuals can follow with their canes. For visitors with hearing impairments, presenting important announcements on screens in written and visual form makes communication within the park more inclusive.

Benefits of accessibility solutions include:

• Social inclusion: With smart technologies, people with disabilities can use parks more freely and safely. This supports a more inclusive public space where everyone can participate equally.
• Easier wayfinding: With advanced guidance systems, older adults, people with disabilities, or foreign visitors can reach their destinations within the park without needing assistance. For example, a route selected in a mobile app can guide the user to the target through smart ground markers and audio notifications.

10. Data Collection and Management Infrastructure

In the background of smart parks, there is a robust data collection and management infrastructure that connects and manages all these systems. Data streams coming from every sensor, camera, light, and device installed in the park are collected in centralized software (often an IoT-based smart city platform). This allows park managers to monitor the park’s status from a single screen in real time: how many devices are running, energy consumption levels, fill rates, and more.

Analyzing the collected data is critical for both instant operational decisions and long-term planning. Through decision support systems, managers can take data-driven steps. For example, if a certain corner is found to be underused, a new attraction can be introduced there. The opportunity for real-time intervention also increases with data. Thanks to instant sensor alerts, it becomes possible to detect a leak in an irrigation line or notice a malfunctioning device immediately. As a result, issues are resolved before they grow and resources are used more efficiently.

What Should Smart Parks Be Like?

Smart parks require more than simply hosting the technologies listed above; they demand a holistic design and management approach. At the center of this approach lies the balance between people and nature. In other words, technology should serve to improve visitors’ experiences and protect the natural environment. No matter how technological a park may be, if people do not feel comfortable and at peace, it cannot be considered successful.

In this context, the qualities an ideal smart park should have can be listed as follows:

• A Balance Between Nature and Technology: A smart park should not be a concrete-heavy technology showcase; it should be a space that enriches green texture through “invisible technology” support. Sensors, cables, and devices should be integrated in a way that is as unobtrusive as possible. For example, in Singapore’s Gardens by the Bay, technology is presented within aesthetically designed structures inspired by plant forms, achieving a nature-compatible appearance.
• Fit to Local Needs: Every park has a different demographic structure, climate, and user profile. Therefore, smart park solutions should not be one-size-fits-all but shaped according to local needs[3][4]. For instance, in an area with a high concentration of young people, free Wi-Fi and charging stations can be prioritized; whereas in a neighborhood park used by an older population, elements such as lighting, seating areas, and emergency health buttons should be emphasized.
• Flexibility and Scalability: Considering how quickly technology evolves, today’s smart parks should also be open to future innovations. With modular infrastructure and updatable software, new sensors or devices should be integrated easily. In this way, the park can be updated over time without having to be rebuilt from scratch as technology ages, ensuring a longer service life.
• Sustainability and Durability: Environmental sustainability should be at the core of smart park design. Principles such as energy efficiency, water reuse, renewable energy use, and waste minimization should be considered at every stage—from planning to operation. In addition, all technological equipment should be selected to withstand outdoor conditions and be protected against vandalism.
• Community Participation and Education: A park becomes truly smart when its users are also included in the process. Incorporating public feedback during planning, conducting satisfaction surveys after opening, and sharing data transparently increase users’ sense of ownership. In addition, informational signage introducing the technologies, and play areas for children themed around the environment and technology, can turn the park into an educational space as well.

Smart parks are innovative public spaces that bring sustainability and comfort into urban life through technology. With smart infrastructure elements, they can deliver high performance across many domains—from energy-efficient lighting and security to connectivity services and environmental monitoring. Yet the most ideal smart park is the one that keeps technology in the background, highlights nature and people, and offers an accessible, safe, and enjoyable living space for everyone. Such a park provides visitors with a peaceful setting for rest and social interaction, while also offering the chance to experience the sustainable city vision of the future today.