biophilic design architecture thesis

Enhancing The Human-Nature Connection Through Biophilic Design In the Built Environment: A Branch Library on the Banks of Lake Union

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Leveraging human responses to biophilic design in architecture to reduce the environmental impact of the built environment

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• St-Jean, Philippe
• Grant Clark (Supervisor)
• This thesis looks to address the question of whether building occupant behaviour, as it relates to the resource consumption of buildings, can be influenced through the integration of specific architectural stimuli demonstrated to elicit specific behavioral outcomes. The stimuli in question are limited to those for which a biological, and thus evolutionary, response has been empirically demonstrated.Biological responses to architectural design include a field of study and practice known as biophilic design. To align the findings within this thesis with the leading biophilic design frameworks, an analysis of the biological justification for the purported biophilic design elements within the leading frameworks is included. The intention is to first identify stimuli for which responses are biologically ingrained, to ensure their applicability both cross-culturally and independent of personal experience, and second, to harmonize and adapt the leading biophilic design frameworks to include only design approaches supported by empirical research to be biophilic in nature. Based on the extant literature in behavioural psychology, an argument is then provided for if and how these stimuli could be leveraged to influence building occupant behaviour as it pertains to building resource consumption.The research indicates that the built environment affects the physiology and behaviours of people through biologically ingrained mechanisms in myriad ways. Research supporting the concept of biophilic design is robust and extensive, however, some of the purported biophilic design strategies found in the predominant frameworks lack empirical evidence. Architectural design features can influence human health, happiness, and physiological function. Furthermore, research indicates that building architecture can be leveraged to produce specific physical and behavioral outcomes. Associative learning, classical conditioning and the drive theory of motivation could effectively influence building occupant behaviour through architectural building design, particularly if coupled with programmatic or social factors
• Cette thèse cherche à établir si le comportement des occupants d'un bâtiment, en ce qui concerne la consommation de ressources des bâtiments, peut être influencé par des éléments architecturaux spécifiques pour provoquer des comportementaux spécifiques. Les éléments de design en question sont limités à ceux pour lesquels une réponse biologique, et donc liée à l’évolution humaine, a été démontrée.Les réponses biologiques à la conception architecturale comprennent un domaine d'étude et de pratique connu sous le nom de conception biophilique. Pour aligner les résultats de cette thèse avec les principaux cadres de conception biophilique, une analyse de la justification biologique des prétendus éléments de conception biophilique dans les principaux cadres est incluse. L'intention est d'abord d'identifier les éléments de design pour lesquels les réponses sont ancrées dans la biologie, afin d'assurer leur applicabilité indépendamment de la culture ou historique personnelle d’un individu, et ensuite, d'harmoniser et d'adapter les principaux cadres de conception biophilique afin d'inclure uniquement les approches de conception soutenues par la recherche empirique comme étant de nature biophilique. Sur la base de la littérature existante en psychologie comportementale, un argument est ensuite fourni pour valider si et comment ces éléments de design pourraient être exploités pour influencer le comportement des occupants d'un bâtiment en ce qui concerne la consommation des ressources du bâtiment.Les résultats de cette analyse indiquent que l'environnement bâti affecte la physiologie et les comportements des personnes par le biais de mécanismes biologique et ce, de multiples façons. La recherche soutenant l’approche de conception biophilique est importante et robuste, cependant, certaines des prétendues stratégies de conception biophilique inclues dans les cadres prédominants manquent de preuves empiriques. Les caractéristiques de la conception architecturale peuvent influencer la santé, le bonheur et la fonction physiologique de l'homme. En outre, la recherche indique que l'architecture des bâtiments peut être utilisée pour produire des réactions physiologiques et comportementaux spécifiques. L'apprentissage associatif, le conditionnement classique et la théorie de la motivation pourraient influencer de manière efficace le comportement des occupants d'un bâtiment par le biais de la conception architecturale, en particulier s'ils sont associés à des facteurs programmatiques ou sociaux
• Bioresource Engineering
• McGill University
•  https://escholarship.mcgill.ca/concern/theses/zw12zb019
• All items in eScholarship@McGill are protected by copyright with all rights reserved unless otherwise indicated.
• Department of Bioresource Engineering
• Master of Science
• Theses & Dissertations

Guidelines and considerations for biophilic interior design in healthcare environments

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At the heart of this thesis research lies the theory of biophilia which describes the innate affinity that humans have for nature and suggests a scientific hypothesis for environmental behavioral responses within the creative fields of architecture and design. Natural environments afford healing and restorative benefits in the form of positive shifts in cognitive, physical, and social functioning. Stress relieving benefits of natural environments are also widely recognized for their ability to provide a sense of control or privacy, a means for social support and interaction, opportunities for physical exercise and movement, and positive distractions through connection to nature. By creating verdant environments that are sensory-rich and accommodate physical experiences with nature beyond the passive experience of simply viewing it from the interior, a garden can provide healing benefits that extend past the architectural walls of the healthcare building. Through the introduction of guidelines and considerations, the field of healing landscape architecture has been able to design for positive environmental responses to create successful exterior healing environments. However, the same supportive characteristics, preferences, and stress relieving benefits of a natural healing environment need to be considered for the interior healthcare environment.

To further facilitate well-being, the built spaces need to be environments that reconnect the body and mind and foster a sense of place. These healing effects can be achieved through biophilic and sensory encounters within the facility. By focusing more on the human-environmental response research from environmental psychology, the methods for healing landscape architecture, and expanding on the principle of connection to nature in evidence-based healthcare design, healing interior environments can begin to be redefined. Using concepts of biophilic design to guide decisions for the built environment, spaces are designed to support healing through biophilic responses and connection to natural elements and systems. This thesis is meant to be viewed as a contribution towards developing evidence-based biophilic interior design solutions for healthcare environments. The interdisciplinary research and proposed guidelines are hypotheses for how to further design with nature for human well-being. They offer support and design considerations for psychological responses to nature within the interior healthcare environment.

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• Published: 08 July 2020

Biophilic streets: a design framework for creating multiple urban benefits

• Agata Cabanek 1 ,
• Maria Elena Zingoni de Baro 1 &
• Peter Newman 1  

Sustainable Earth volume  3 , Article number:  7 ( 2020 ) Cite this article

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Biophilic urbanism is bringing new perspectives to how natural systems need to be integrated into the fabric of cities. This paper shows how biophilic streets can be the front door to biophilic urbanism by integrating nature into a new street design, benefiting a range of economic, environmental and social functions. A theoretical integrated Biophilic Streets Design Framework, is outlined and evaluated through the analysis of four street revitalisation projects from Vitoria-Gasteiz, Berkeley, Portland and Melbourne. Its practical applications and multiple urban benefits will be of value to street designers globally. The Biophilic Streets Design Framework demonstrated that the four case studies meet the main design categories, which is favourable since multiple additional benefits are likely to be obtained. Future research is needed to monitor and quantify the performance of biophilic streets design to address the increasing effects of climate change, environmental degradation and biodiversity loss in a cost-effective way.

Introduction

Streets have been the focus of public life in cities since they were first built [ 1 , 2 ]; they provide the space and accessibility for close communal activity. The rediscovery of the social and economic value of streets since the work of Jane Jacobs [ 3 ], groups like Project for Public Spaces, and the detailed designs of Jan Gehl [ 4 , 5 ], have enabled them to be seen as much more than spaces for mobility. This research seeks to integrate biophilic element into the design of new streets and the renewal of traditional ones to enhance the environmental component in the mix of benefits associated with streets.

Biophilic urbanism has emerged as a way to bring nature more purposefully into cities, not just between buildings and infrastructure, but into and onto them in ways that increase the connectivity between people and nature and derive benefits from natural services and functions [ 6 , 7 , 8 ]. Although the application of biophilic urbanism to streets has been present in the literature for some years and has informed the work of biophilic designers, it has not been formally developed into a design framework demonstrating how it can be delivered and what its multiple benefits are. This paper seeks to address the need for a theoretically and practice informed design framework to enable more effective delivery of biophilic urbanism.

Biophilia and related emerging concepts

The emerging concepts of biophilia, biophilic design and biophilic urbanism are primarily concerned with human inclinations to affiliate with nature in urbanised environments such as cities, as suggested by Wilson [ 9 ], Kellert Heerwagen and Mador [ 6 ] and Beatley [ 7 ].

The term biophilia was first used by the German psychoanalyst Erich Fromm in 1973 and defined as ‘love of life’. The American biologist E.O. Wilson advanced studies on this subject, expanding and popularising the concept of biophilia as the innate affinity of human beings with all forms of life and their inherent tendency to focus on lifelike processes in his seminal book, Biophilia (1984) [ 9 ]. Further studies demonstrated that this human inclination to affiliate with nature appears to be critical for human physical and mental health in the modern urbanised world due to humanity’s origins in nature [ 8 , 10 , 11 , 12 ]. Salingaros [ 12 ] studied this relationship in depth, also studying how humans developed their sensory space. He suggested that there are particular and very specific geometrical properties found in the structure of nature and in the built environment which have a positive and uplifting influence on human physical and mental conditions. These properties applied to design can therefore enhance the quality of life in urban centres. This process, called the ‘biophilic effect’ by Salingaros, relies on an intimate informational connection between humans and nature, and supports the need to introduce natural systems into the design of built environments [ 12 ]. Kellert [ 6 ] defined and described six biophilic design elements and seventy attributes that were later summarised for practical application in architectural and urban design. Kellert and Calabrese considered biophilic design as a means for sustainable development because it could promote care, stewardship, and attachment to place [ 10 ].

Biophilic design attempts to achieve the benefits of contact between people and nature within the modern built environment [ 6 , 10 , 11 ] by integrating nature, internally and externally, into buildings, built infrastructure and across the urban space [ 7 ]. By adopting the strategies of this design principle, creating habitats for people, as biological organisms, that restore or enhance their physical and mental health, fitness and well-being becomes viable [ 10 ]. In addition to anthropocentric goals and benefits, biophilic design is a recognised solution to a spectrum of environmental challenges including urban heat island effect, particulate matter filtration and carbon dioxide sequestration, rehabilitation and restoration of lost habitats and increase of urban biodiversity. It promotes ecologically interrelated design solutions at multiple scales and enables regeneration of natural systems in the urban environment [ 8 , 13 , 14 , 15 ].

Beatley (2011) extended the concept of biophilic design to the urban scale, imagining and encouraging biophilic cities. Biophilic urbanism was presented as an emerging planning and urban design approach that aimed to systematically integrate nature into the urban fabric, igniting the potential to transform barren urban spaces into places that are restorative and conducive to life [ 7 , 13 ]. Biophilic urbanism focuses on ecological systems and human activities delivered by biophilic interventions and projects. The main goal of biophilic urbanism is to improve the connection between urban dwellers and urban nature and nourish the experience of nature on a daily basis as an integral part of urban living [ 6 , 7 , 8 ]. In this sense, biophilic design and urbanism deliberately facilitate opportunities for urban residents to experience nature daily [ 7 , 10 ].

The global shift towards biophilic design continues to grow. Although the terminology used varies, there are initiatives in many countries that focus on the role of nature as an essential element of everyday urban life [ 8 ]. Recent studies have shown that experiencing nature on a daily basis supports people’s mental and physical health [ 7 , 16 , 17 , 18 , 19 ]. Table  1 below outlines the multiple benefits of biophilic design to the environmental, socio-psychological and economic aspects of urban life.

Biophilic theorists Stephen Kellert and Elisabeth Calabrese [ 10 ] have formulated a range of biophilic experiences and attributes (Table  2 ) to facilitate the application of biophilic design theory to practice that delivers buildings and urban spaces that facilitate direct and indirect experiences of nature for urban dwellers in their daily lives. These experiences and attributes serve as principles to inform the balanced design of biophilic urban spaces. Some of these experiences are difficult to encounter in conventional streets; however, they can be incorporated into the renewal of conventional streets and the design of new ones by biophilia-literate designers.

To ensure ongoing exposure to and interaction with nature, both bond and commitment to place are needed. In order to achieve these, a design must be founded on a sound understanding of urban nature and its ecosystems as well as a sense of place. This is likely to lead to more frequent interactions between people and nature, thereby nurturing the bond between them and increasing the likelihood that residents will protect and save urban green spaces [ 20 ]. Some scholars argue that a relationship to place is needed to develop intimacy and responsibility for nature and the living world [ 21 , 22 ]. Streets are an important part of any human settlement and, hence, this approach will be used to create a Biophilic Streets Design Framework presented in this paper.

A brief history of streets

Urban designers, planners and civil engineers have conceived and developed regulatory frameworks for streets to enable efficiency, security and, most of all, the rapid conveyancing of traffic, both public and private. However, the modernist tendency in the twentieth century, which saw the rise of automobile dependence, created rigid regulations that focused on efficiency and traffic control and directly contributed to the detachment of nature from urban ecologies, bioregions and climate dynamics [ 23 ]. By creating barriers in the form of dense networks of freeways and highways, the remaining urban natural areas became fragmented and isolated, along with the social neighbourhoods that they physically divided, thus disrupting their social integrity. Such impacts were built into the design frameworks created by traffic engineers.

Jane Jacobs challenged these approaches that prioritised private mobility over all other street functions and pointed to the diverse social networks characteristic of busy urban streets, which constitute the fabric of a city [ 3 , 24 ]. Those social networks are created when the structure and amenities of a street provide space for interaction and promote walkability. The abundance of social networks provide opportunity for local businesses to thrive; hence, Jacobs was able to construct a theoretical approach to show why streets were essential to a city’s economy [ 25 , 26 ]. This has since developed into a strong plea for dense urbanism and street fabric to be seen as essential components of how cities create wealth and opportunity [ 27 , 28 , 29 , 30 ].

Urban designers, such as Jan Gehl, criticised modernist planning ideologies and how they dismissed the value of historic streets by allowing cars to invade every available space in cities [ 4 , 31 ]. Through a series of reports on cities around the world, Gehl created a new framework for how streets should be designed to facilitate close interactions between people that enable multiple economic and social benefits and reduce the environmental impact of cars [ 31 , 32 ]. Gehl’s framework for urban planners, landscape architects and architects reinforces walkability, active street frontages and street furniture as integral parts of city policy [ 31 ], to ensure streets are welcoming spaces in the pattern of daily activities. Table  3 below shows Gehl’s 12 quality criteria as a framework for this approach to street design, with an additional column that shows how biophilic design interventions can enrich the pedestrian landscape and experience.

Cities are changing from sprawl and car dependency to transit and more compact urban forms, and so are their streets. The focus of urban streets is changing from ensuring traffic movement efficiency to a more people-centred design that puts pedestrians first, then cyclists and transit, and lastly private motorised vehicles [ 33 , 34 ]. Building on Gehl’s work and collaborations among experts from global cities, the National Association of City Transportation Officers (NACTO) created the Global Street Design Guide [ 35 ], which is intended to be a baseline for urban street design. The Guide aims to better balance the needs of street users (with more emphasis on the needs of pedestrians) and supports the creation of quality spaces based on the consideration of people and place.

Finally, the concept of biophilic design contributes to the creation of urban streets with attractive, healthy, liveable and restorative environments and nature experiences at the door step for both dwellers and other street users within gradually densifying urban precincts through urban infill.

Developing a framework for biophilic streets design

An urban street can be compared to an evolving organism adapting and responding to its environment. Although cities contain a broad range of street typologies, depending on the context, they generally provide space for transportation, commuting, physical activities and social and economic life at different scales [ 36 ]. Traffic engineers and urban designers often fail to plan streets that deliver positive social or health-related outcomes. Reconceiving urban streets as places, rather than just movement spaces, would facilitate the provision of these positive outcomes. Furthermore, as the time people spend in streets compared to the time they spend in parks is eight to ten times more [ 37 ], the design of streets—to support health and well-being— should be considered before parks [ 36 , 38 ].

Streets provide diverse experiences to their users, including the experience of nature. Identifying the most appropriate design strategies to apply to any given street would need to take into account a range of circumstances and requirements particular to that location. This may include the history of the street, the existing social, environmental, architectural and structural conditions, existing infrastructure, policies and regulations, project size, zoning and land use and its potential future as a place.

Based on the experiences of biophilic places (Table 2 ) and their many benefits, a list of the characteristics of a biophilic street were compiled as an analytical framework of six categories. These categories consider design functions, design objectives, design elements and the characteristics of a biophilic street. The six categories—traffic planning, energy management, stormwater management, biodiversity management, street furniture and activities and education—are derived from the intended purposes for which streets are designed, and chosen because of their potential to be improved by the addition of biophilic elements. Elements that have been successfully designed, developed and applied in real-life projects form the base for a biophilic street . The proposed Framework is set out in Table  4 below, followed by an explanation of each category. It is then applied to four examples of a street revitalisation project to illustrate its usefulness.

Mobility planning

A street often serves as a front yard for residents; it must, therefore, provide a safe place to move around, whether by car, bicycle, transit or on foot. However, used only for transportation, a street loses its relevant social and economic functions, such as providing a safe space for interaction, as identified by Jacobs [ 3 , 26 ] and Gehl [ 5 ]. In the wake of the urban renewal movement, many cities are restoring or redesigning their main streets and boulevards to serve as linear parks and other types of hospitable public places promoting social interaction and walking. As a result, the most successful transformations add value to adjacent properties and local businesses [ 39 ]. The Biophilic Streets Framework takes these fundamental characteristics of streets and seeks to show that there are biophilic design principles and strategies that could help streets perform these functions more effectively.

To achieve safety standards on biophilic streets, traffic calming schemes should apply, including techniques designed to lessen the impact of traffic. Trees and bushes are well known to do this by psychologically giving drivers a sense of needing to go slower [ 40 ]. The location of measures and devices (including types of vegetation) determines the effectiveness of traffic calming schemes, and those again depend on the type of streets they are introduced on: a residential road, a road with traffic functions or a transit road having a combination of speeds that enable rapid mobility (between stations) and slow mobility (within station precincts). These are within the purview of traffic engineering and planning, where concepts of place and movement and melding.

An example of traffic calming structures featuring engineered stormwater gardens are chicanes [ 41 , 42 ]. These structures slow traffic by confining the travel lanes. They also feature depressed interiors capturing stormwater which feed garden beds, shrubs and trees creating biophilic systems. Chicanes can be formed using sculpture, plantings or parking to enhance the appearance and function of a street. They are best used on narrow roads, to prevent cars from swinging out to maintain their speed around the bends; narrow, curving roads encourage motorists to drive more slowly and carefully [ 43 ].

Energy management

Energy management in urban streets serves multiple functions: helping to cool a city where urban heat island effect is leading to ill health; making walkability easier and hence improving urban economics in the area; and helping to cool the buildings next to the street. In multiple studies, urban greenery has shown cooling capabilities [ 44 , 45 , 46 ]. Parks lower the air temperature within their territory, but the impact on the adjacent built environment is limited [ 47 ]. Urban tree canopy provides a cooling effect in street canyons [ 48 , 49 ]; some studies show air temperature under a canopy are reduced by 0.7–1.3 degrees Celsius in the early afternoon [ 50 ]. The cooling capacity of a tree canopy depends on its characteristics, as well as the characteristics of the street such as surface materials, geometry, building height and how densely the street is built up. However, at night time the air temperature under the canopy, where the radiating heat is captured, can be 0.5 degrees Celsius higher than in an open space reference point [46].

Biophilic structures installed directly onto buildings include green walls and roofs. By introducing such structures, the air temperature in street canyons can be reduced as well as the demand for cooling and heating of buildings. A multi-case study by Alexandri and Jones [ 51 ] was conducted in nine cities to assess the thermal effect of green walls and roofs in urban canyons across different microclimates. The authors concluded that the solar radiation absorbed by the roof and facade surface was reduced by applying greenery, and that the heat fluxes vary on different vegetated surfaces and in different microclimates. The outdoor air temperature and energy savings were measured in nine cities. In Hong Kong the analysis of canyon air temperature showed a decrease by a maximum of 3.9 degrees Celsius, while in hot and arid Riyadh the maximum flux was 18.7 degrees Celsius on the green wall surface. Roof surface temperatures are even more significant. In Mumbai the temperature decreased by 26.1 degrees Celsius and in London the maximum decrease was 19.3 degrees when comparing unvegetated and vegetated rooftops.

Stormwater management

Cities feature vast amounts of impervious surfaces producing significant run-off that needs to be managed. Green infrastructure has been found to retain most of the polluted initial run-off through bio-retention and bio-filtration. Through these two processes, rain water can be permanently retained or temporarily detained. Captured stormwater contributes to groundwater recharge and helps sustain the whole water cycle [ 36 ]. Biophilic urbanism not only picks up all these design features, it adds more.

In recent years, biophilic designers have transformed one of the largest impervious areas—roof tops—into intensive and extensive gardens and meadows [ 52 , 53 ], creating efficient stormwater management systems [ 54 ]. Stovin [ 55 ] tested green-roof stormwater retention on a small-scale trial and found that the retention capacity was on average 34, and 57% of peak flow run-off.

In another study led by Kew [ 53 ], rainfall was shown to have little or no impact on the green wall. Most of the rainfall was blocked by the gutters integrated into the system. In order to improve the efficiency of the green roof and wall systems, the run-off from the roof was collected into cisterns and then used to irrigate the green walls with drip irrigation. Green walls do not directly collect significant amounts of precipitation; however, they are often used to control first stormwater flush. The efficiency of a particular system does not only depend on technological advancement, but also on climatic conditions and the vegetation and growing medium as well as whether the green wall is facing the main weather fronts [ 56 ].

Thus, a green roof can be considered an alternative to a conventional stormwater management system and become integrated into the concept of a biophilic street. In an urban setting, a total facade area usually exceeds a roof area; thus, a well-designed green wall could become part of the green-roof stormwater system if that is a desired outcome. With more competition for ground vertical surfaces in urbanised areas, the potential of rooftops and vertical surfaces for stormwater management is significant. The success of green roof and green wall stormwater management can be measured by the increasing number of municipalities, developers, and individuals undertaking this first flush control [ 53 ]. A biophilic street can thus become part of a whole new stormwater management system.

Biodiversity management

Efforts to preserve global biodiversity are frequently centred on saving large remaining natural habitats [ 57 ]. However, several studies on urban greenery provide data on biodiversity in parks, gardens, squares, streets and other places where flora and fauna can be found. Urban parks offer refuge to native biota [ 58 ] and urban streets also have the ability to support biodiversity [ 58 , 59 ] by providing food, shelter and breeding sites and facilitating the movement of wildlife.

Significant percentages of animal and plant species, including endangered species, inhabit urban forests . For example, highly urbanised environments have been found to accommodate 20% of the world’s avian biodiversity [ 60 ]. A study by Threfall [ 59 ] showed a strong connection between understorey vegetation and native bird species in Melbourne, Australia.

Innovative structures like green walls and roofs are popular sustainable design interventions due to their ability to cool the building envelope and create aesthetically pleasing facades. However, the structure of a biophilic street with large variations in the height of different vegetation types on various buildings and in the street itself, should support biodiversity in cities at a landscape scale. The design detail of a biophilic street could be used to enable a range of biodiversity goals, for example, by acting as a corridor to facilitate movement [ 61 ]. At a local scale, vertical greening systems can be used as means to improve the environmental conditions, with even simple flora assemblages providing habitat for invertebrates [ 62 ] as well as nesting, food and shelter resources for urban ornithology [ 62 , 63 ]. The size of impact on biodiversity from such biophilic street structures is yet to be ascertained, though undoubtedly the plant species introduced will influence the richness of animal species. Whether this could support urban ecological restoration has not been researched at a significant scale [ 64 ].

In a study undertaken in Staffordshire, United Kingdom, a number of bird species of conservation concern were reported exploiting and nesting in some newly created green walls and their immediate surroundings [ 65 ]. The researchers concluded that encouraging homeowners and businesses to install green walls could be an effective way of providing habitat and resources for birds in an urban environment. This also highlights an important opportunity for urban open space designers and managers to make a positive impact on biodiversity through relatively small and cost-effective improvements in vegetation quality by creating more biophilic streets.

In a study of bio-retention swales undertaken in Australia, researchers observed that the swales presented greater richness and diversity of species than gardens and lawn-type green spaces. Bio-retention swales are vegetated water sensitive urban design (WSUD) structures built to support more sustainable urban infrastructure [ 66 ]. This system is increasing in popularity and replacing customarily vegetated areas of streetscapes with sustainable natural assets [ 67 ]. It is likely to become a more mainstream design outcome, however, if part of a biophilic street.

Street furniture

The design innovations outlined above comprise building biophilic elements along street spaces and on facades of buildings for a range of reasons. This section focuses on the potential of street furniture, an important element of every street, to fulfil a biophilic function in addition to its usual function.

Urban street furniture is designed and integrated into streets for a range of reasons but rarely for purposes related to biophilic urbanism. This is possible to achieve and likely to work best if its biophilic potential is incorporated into a design from the beginning rather than added after other elements have been considered or are in place. Bus shelters, bicycle stands, street art, play installations and benches have been used in several major cities to support native flora and fauna, facilitate habitation for wildlife and provide various other ecosystem services. So it is possible to add this dimension to a biophilic street.

Maynard Green Street in Seattle, United States, is an example of harnessing urban street furniture to support natural systems. The street was refurbished in 2010 as part of Seattle’s Green Street program, which was established to enhance open space and pedestrian circulation. Combining public art with a water filtration system, the Maynard project incorporates rooftop run-off that enters a cistern before flowing down the custom-designed planters. The planters also function as benches for pedestrians ascending and descending the steep street [ 68 ].

Another example of innovative street furniture is the CityTree designed by a German start-up, Green City Solutions [ 69 , 70 ]. Their key aim was to build a street furniture element able to provide air-purifying solutions in a man-made ecosystem. The structure consists of biologically engineered moss and vascular plant species grown using a green wall system. Rainwater is gathered and recycled through the system while irrigating the plants. The efficiency of this street furniture still needs to be tested and proven in multiple locations. However, the company claims that a single CityTree is capable of combating air pollutants as effectively as 275 urban trees at 5% of the cost and requiring 99% less space. They also claim that a single CityTree has the ability to reduce air pollution by 30% within a 164-ft radius. So far, the CityTree has been tested in several large cities across the globe: Berlin, Paris, Glasgow, Oslo and Brussels [ 69 ].

Bus shelters have been included in greening projects in many cities. Green shelter prototypes have been created to provide more inviting and enjoyable experiences while addressing the needs of transit waiting areas. Trials have highlighted the benefits of integrating biophilic design and sustainable transit to lessen the environmental impact of climate change.

The Living Bus Shelter in Minneapolis, United States, was an initiative between the Minneapolis Downtown Improvement District and Metro Transit. The structure was comprised of vertical pallet gardens containing a variety of edible plants. After the installation, commuters were encouraged to explore the plants by touching, smelling, tasting or even taking them home. The data, which emerged in a survey, showed improved transit user experience. All respondents gave positive answers when asked whether they favoured the incorporation of greenery into the shelter. The aesthetic character of the installation was rated nine out of ten and users generally expressed enthusiasm about the greenery and suggested increasing the volume. In the end, 65% of respondents gave the green light to the local authorities to continue reimagining transit shelters through green installations [ 71 ].

Other cities, such as San Francisco and Philadelphia in the United States, Sheffield in the United Kingdom, and Eindhoven in Germany, introduced similar programs of greening their transit shelters. The local authorities intended to provide an attractive green space in the unconventional location of concrete dominated urban space. Vegetated roof installations on a bus shelter in Philadelphia aimed to raise awareness about urban stormwater management [ 72 ]. In Eindhoven, bus shelter design aspired to perfect integration with the existing city fabric. The green bus stop design was selected through a competition organised by the council [ 73 ]. Vegetation installed on public transport shelters is considered to be in a prime position to filter contamination and particulate matter from transport vehicles [ 35 ]. These initial attempts to green bus shelters successfully captured the imaginations of city inhabitants while promoting sustainable and feasible innovations.

Activity and education

Gehl Architects identify three types of activities that occur in urban environments: necessary, optional and social activities. Optional activities depend on the quality of a place; the more attractive a place is, the more often pedestrians choose to stroll, play, sit and eat there. The design features of biophilic streets should encourage these optional activities, facilitate community and reinforce the identity of a neighbourhood. The best executed biophilic streets will therefore be full of nature, bringing more people outside and into shared activities. An intense mixture of uses also makes streets safer [ 5 ].

When streets function well on an everyday level of biophilic experience, they provide opportunities for activities like teaching, learning and entertainment. Wider streets, like boulevards, provide opportunities for entertainment such as play equipment, art installations, water fountains, games and other foci for social interactions. A good example is found in Montreal, Canada, where a lifeless median of Promenade des Artistes has been transformed into an active space as part of a biophilic street regeneration. Twenty-one multi-coloured, musical swings were installed in order to foster play and social interaction between pedestrians of all ages and backgrounds [ 74 ].

Environmental agencies and local councils encourage communities to engage in the renewal and enhancement of urban nature. In 2015, The Environmental Protection Authority (EPA) in South Australia launched the Rain Garden 500 program [ 75 ], through which local councils and community groups can apply for funding to build rain gardens. The program helps to improve the quality of stormwater run-off. Another purpose is to educate communities and school children about the impact residents may have on the quality of urban waterways. Information plaques were installed to spread knowledge about the importance of water harvesting projects. Thus, design elements that enable activities and education in a biophilic street are part of the Framework presented in this paper.

The five characteristics of a street that lend themselves to the application of biophilic design elements, as outlined above and in Table 4 , will now be discussed in relation to four examples of a street revitalisation project to determine how effectively the proposed Biophilic Streets Design Framework can contribute to creating more biophilic cities with multiple urban benefits.

Potential issues and trade-offs

Potential benefits of the biophilic streets have been presented; however, it is also necessary to address potential issues and trade-offs associated with the proposed concept. Some issues may include a high initial cost of construction, high cost of maintenance and limited on-street parking due to the expansion of green infrastructure within street medians. A higher concentration of plants (native or edible) or rain gardens may produce higher amounts of organic litter, which may become a nuisance to some pedestrians. However, the changing seasons and patina of time—the two biophilic experiences—are achieved, enriching and improving the overall biophilic experience.

Green infrastructure within street medians may generate higher maintenance costs. For example, the maintenance of green walls and roofs extend the area of greenery expected in conventional streets, which may result in additional costs.

The maintenance costs could be shared between the local authority and the residents (private and commercial) of a biophilic street. A successful maintenance sharing program can be found in Portland, Oregon. The Green Street Stewards were volunteers who were responsible for occasional removal of sediments, collection of organic matter and rubbish from the planters and watering [ 76 ]. By facilitating the stewardship program, the city helped to create bonds between the residents and the local urban nature, at the same time reducing the cost of maintaining the streets.

Research into costs and benefits of selected street elements, such as trees, can be found in the scientific literature [ 77 , 78 ]; however, a biophilic street—as a green infrastructure project—would require a holistic economic analysis to prove the feasibility of a proposed design scheme.

Analysis of the selected streets

Four illustrative examples of a street revitalisation project were selected for analysis through the lens of the proposed Biophilic Streets Framework: a former urban highway in Vitoria-Gasteiz, Spain; the streets renewal project in Downtown Berkeley and SW Montgomery Green Street in Portland, United States; and the Green your Lane project in Melbourne, Australia. The selected streets serve as examples of a diverse approach to street design using multiple tools and strategies to achieve high performing biophilic public spaces. They represent different types of biophilic streets in terms of their hierarchy and their functions. Their biophilic street features are summarised in Table  5 using each of the Framework’s six design characteristics.

Gasteiz Hiribidea in Vitoria-Gasteiz, Spain

Vitoria-Gasteiz, the capital city of the Basque Country, has been committed to the principles of sustainable urban development for many years. In 2013, Vitoria-Gasteiz joined the league of biophilic cities with a showcase of successful projects and interventions fulfilling the biophilic urbanism agenda [ 7 , 8 ]. The urban greenery of Vitoria-Gasteiz features 50,000 plants composed of 381 species of trees and shrubs, including tree-lined streets and avenues connecting urban biodiversity [ 79 ]. One of the main roads, Gasteiz Hiribidea, underwent a major revitalisation and became an example of good practice for other cities to follow. In the past, the street was an eight-lane highway, but after a major redesign, it now features a naturalised stream and an abundance of greenery including trees, a grassed tram line, two cycle tracks and broad sidewalks. The naturalised stream, which was once channelled under the streets, now runs along the pavement. It features native aquatic and riparian vegetation bordered by a reinforced embankment. The stream provides habitat to small animals for feeding, breeding and shelter, enhancing local urban biodiversity (Fig. 1 ). Together with the large green envelope of the Palace of Europe, the stream creates a biodiversity hotspot in the city centre providing habitat to over 70 species of butterflies [ 7 ]. Flowering perennials and annuals create a vertical botanical garden which also serves as an educational centre bringing local nature closer to city dwellers. The street, which once had no room for nature, now abounds with it and its natural processes are available to observe and interact with it on a daily basis. This revitalisation project reinforces the cultural value of the place while also promoting environmental awareness by building a relationship between citizens and nature.

Living stream opposite the Palace of Europe in Vitoria-Gasteiz, Spain. Source: Agata Cabanek

So far, the City of Vitoria-Gasteiz has developed a plan for improving bio-capacity, biodiversity and urban landscape. The most important project is the creation of an external and internal green belt and the activation of the potential of urban green spaces connected by a network of green and biophilic streets, avenues, wooded garden walks and urban trails. The connection between innovative biophilic structures and traditional greenery secures the effectiveness of the urban green network to perform ecological functions and increase biodiversity in the city. The biophilic street in Vitoria-Gasteiz is emerging as a major part of the city’s biophilic urbanism.

Downtown Berkeley, United States

The aim of the streets renewal project in Downtown Berkeley was to provide the usual functions of a street, but to add ecological features in an innovative way on a limited budget. In 2012, the City of Berkeley issued The Street & Open Space Improvement Plan (SOSIP) to present a shared vision for the future of Downtown Berkeley’s public realm (Fig. 2 ) [ 80 ]. The revitalisation project included Shattuck Avenue and Park Blocks, Shattuck Square, University Avenue, Centre Street Plaza, Greenway, Hearst Street and Ohlone Greenway. A number of sustainability goals were established featuring biophilic attributes and experiences. The main objectives of the major projects were walkability, place-making, public life, sustainability, health and comfort. To achieve these a community engagement process was undertaken [ 6 ].

SOSIP masterplan and section of street design integrating greeneries and multiple functions

The strategies employed in the Downtown project were to create a more vibrant, attractive and memorable destination. The information gathered during community consultations informed the focus of the project: public life and the provision of space for a myriad of activities—social, cultural and business—engaging all residents and visitors. The leading aspiration was to establish public green open spaces for residents of different ages and abilities. To meet the objectives, the city established the design criteria, which required all the design features to be used consistently along the nominated streets reflecting traditional character compatible with Downtown historic assets. As a result, all place-making amenities, including public art, were expected to provide a sense of place and evoke local heritage values as well as exhibiting biophilic features.

The biophilic elements included temporary planted installations, such as parklets in parking spaces, to improve and promote pedestrian-oriented activities rather than car use. Parklets help to raise awareness of local nature if their ecological design underpins the concept. Their presence may also lead to the reconsideration of the public realm; parklets could become permanent features evoking a biophilic sense of place.

To achieve the walkable city standards, the city council considered improvements supporting car-free living. One of the solutions was to provide more accessible transit options. To make streets more inviting and attractive, the traffic lane widths were reduced, the sidewalks were widened and bicycle lanes were introduced. The biophilic element was to provide extra space for landscaping buffers between pedestrians and traffic.

Bio-retention swales and rain gardens with riparian landscaping were used in some streets to treat rainwater run-off, thereby improving watershed conditions. The program also included daylighting of Strawberry Creek between Shattuck Square and BART Plaza. Daylighting the creek provided another opportunity to educate the residents about the ecological and biophilic values of natural waterbodies in the urban environment.

Living walls and roofs installed on the buildings bordering the streets provided green infrastructure services and served as aesthetic features enhancing the image of Downtown as an eco-destination. Accessible educational and recreational features in the form of interpretive plates, boards and interactive play equipment were included to educate people about natural systems and their ecological and economic values.

The local government initiated the Downtown revitalisation project which aimed at creating an Art and Theatre District. The funds to finance the public art projects came from many sources – certificates of participation, bond funds, capital, and federal transportation funds. Additionally, the town representatives were also able to secure private funds by consulting the local property and business owners. The money raised to be invested in public art was partially used to revitalise the local streets. Another important source of funding came from the earthquake retrofit bond launched in 1996, which added $4 million for enhancing the streetscapes. As a result, the revitalisation of the Downtown project delivered many biophilic elements to the streets and created attractive, walkable restorative public spaces [ 81 ].

SW Montgomery street in Portland, United States

In 2004, Portland City Council approved the Green Street Policy Goals program through which they committed to promote and incorporate the use of green street facilities in public and private development. One of the first streets to undergo green transformation was SW Montgomery Street. The changes demonstrated an emerging new urban street design approach. This multi-sectional revitalisation project incorporated strategically designed green infrastructure and public transportation. SW Montgomery Street is considered to be Portland’s boldest and most innovative green street project and has received national and international recognition [ 82 ]. The main planning strategy was to activate the neighbourhood, build community culture, enhance the pedestrian experience and showcase the sustainability agenda in the downtown area of the city. The concept applied, which included substantial biophilic street elements, was to become a new place-making model for other downtown streetscape projects in Portland. Street design goals included creating a pedestrian-oriented streetscape that incorporated a variety of green infrastructure solutions such as stormwater planters and swales (Fig.  3 ), green walls and roofs, and kerbless street design to offer a variety of sensory experiences throughout the seasons.

SW Montgomery Street. Shared space with stormwater swales. Source: Nevue Ngan Associates

The biophilic street concept exemplified by SW Montgomery Street, emphasised pedestrian and bicycle travel over vehicular access. Bicycle and pedestrian safety became a priority, and in order to achieve it travel lanes were narrowed, some blocks were closed to through traffic and speed limits were lowered. The biophilic features could then be added to a kerb-less street with merged sidewalks that incorporated planting and swales to absorb stormwater [ 83 ].

Stormwater planters and swales also became educational amenities for the local communities. Since SW Montgomery Green Street runs through the Portland State University campus, students are encouraged to take part in monitoring the performance of the green infrastructure. To facilitate the involvement of local citizens, public education about the corridor was incorporated into the design in the form of interpretive signage.

The project also proposed the installation of green walls and roofs on new development buildings. Stormwater from new building facades was directed into the stormwater planters to demonstrate innovative ways of stormwater management.

This project demonstrates how a busy urban street can be re-designed to improve ecological conditions, foster environmental learning, support community identity and neighbourhood engagement and maintain healthy business districts. The street delivers spaces for public interaction and serves as a transportation corridor whilst achieving much more because of its biophilic elements [ 84 ].

Green lanes in Melbourne, Australia

The rejuvenation and revival programs of lanes and alleys have emerged in many cities such as Austin, Chicago, Montreal, San Francisco, Sydney and Melbourne. Although the programs differ in objectives, there is an increasing use of biophilic elements that enable multiple extra objectives through ecosystem services, aesthetics and social life. The example chosen to illustrate this is from Melbourne.

In 2015, City of Melbourne established the Green Your Laneway program to encourage the transformation of Coromandel Place, Guildford Lane, Katherine Place and Meyers Place (Fig.  4 ) as replicable exemplars [ 85 , 86 ]. As a part of the program, an interactive map was developed to mark the preselected laneways with strong potential for green transformation based on their local micro-climatic conditions and physical qualities. The program involved strong community engagement to ensure later community ownership of the transformed lanes.

Meyers Place in Melbourne. Source: https://participate.melbourne.vic.gov.au/greenlaneways

Four lane typologies were selected: vertical gardens, forest lanes, park lanes and farm lanes. In this program, greening mainly meant planting tough ornamentals and establishing vegetable gardens to be cultivated by local residents. Elements such as window boxes, planter boxes with climbers, hanging baskets and miniature rain gardens were proposed (Fig.  5 ). The more spatially-demanding biophilic design elements involving water were not considered in the narrow laneways due to site constraints.

Design concept for Guilford Lane in Melbourne . Source: Source: Agata Cabanek

The planting strategies were designed to improve biodiversity, provide habitat for wildlife, filter pollution from the air and divert some stormwater run-off despite the small size of the gardens due to the restricted space. Other environmental benefits, such as a reduction of carbon emissions and mitigation of urban heat island effect through ‘green insulation’, are also expected.

A range of social and economic benefits were projected by the council. The vision for the revitalisation of the lanes was to transform them from waste areas to useable public spaces. The lanes were rejuvenated to provide pleasant walkways and encourage people to spend time outdoors and engage in social activities. The Biophilic Streets Design Framework was almost completely implemented in terms of biophilic design elements, showing how much can be achieved in urban regeneration if these are central considerations in street rejuvenation or retrofit.

Several economic benefits are expected due to the activation of the lanes: increase in property values, increase in useable green outdoor spaces, extended life-span of permeable surfaces and savings on heating and cooling [ 87 ].

All four analysed examples of a street revitalisation project show multiple urban benefits which are summarised in Fig.  6 . The many additional outcomes that surpass the usual functions of streets are evident. Cities would derive substantial value from considering biophilic enhancements in their streets as part of their future plans.

The multiple urban benefits of a Biophilic Street

Conclusions

The Design Framework for Biophilic Streets, developed through this research, suggests that much more can be achieved within a city if streets are given biophilic design elements absent in traditional streets. Much can be achieved by adding the biophilic elements of green walls, green roofs and green balconies to building envelopes. Considerable benefit is also possible by adding elements to existing urban streets and road reserves: tree pits, street trees, linear gardens, pocket parks, bioswales, rain gardens, daylighting streams, and biophilic elements integrated with street furniture. The value of all of these biophilic features can be enhanced by incorporating educational and activity functions that can be seen and experienced in the street.

The four analysed street examples demonstrate how biophilic streets can be built in different climates, types of cities, urban structures, and levels of development. In the four analysed projects, the streets illustrated most of the biophilic elements in the Framework, though spatial limitations in high density urban fabrics do limit most of the water-oriented biophilic design elements. However, the majority of the examples were in medium density areas and were able to demonstrate that biophilic design elements can be incorporated into streets and create significant value outcomes in a multiplicity of economic, social and environmental ways. The value in humanising streets has been well established and it should now be possible to add the design dimensions of biophilic streets, as set out in the Biophilic Streets Design Framework. This is likely to enable a broader perspective on the value of streets in cities.

The Biophilic Streets Design Framework could be used by policy-makers and designers to move from the theoretical and imaginative biophilic urbanism discourse to real-life projects and urban interventions. When applied in conjunction with other design strategies and policies, for example, water-sensitive, biodiversity-sensitive, regenerative, resilient or ecological urban design, the Framework could help to improve urban infrastructure so it delivers restorative and health-promoting outcomes across any city.

Biophilic urbanism is becoming a major policy area for delivering tangible benefits to cities and their populations. This paper has suggested that by transforming urban streets into biophilic streets it is possible to add an extra dimension to biophilic urbanism. The biophilic street concept integrates the ideas advocated by Jane Jacobs and Jan Gehl who have demonstrated that people-oriented streets contribute to a community’s economic and social enhancement by integrating environmental approaches into the functional design of streets.

Future research is needed to monitor and quantify the performance of biophilic streets in addressing the adverse effects of climate change, environmental degradation and biodiversity loss; as well as how it can be cost-effective.

Availability of data and materials

The dataset used and analysed during the current study are available from the corresponding author on reasonable request.

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This research funded by the CRC for Low Carbon Living Ltd. supported by the Cooperative Research Centres program, an Australian Government initiative.

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Cabanek, A., Zingoni de Baro, M.E. & Newman, P. Biophilic streets: a design framework for creating multiple urban benefits. Sustain Earth 3 , 7 (2020). https://doi.org/10.1186/s42055-020-00027-0

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The research presented in this thesis addresses the need to incorporate strategies that promote human nature connection into everyday life in order to support the inhabitant’s health and well-being and promote pro-environmental behavior. Moreover, this thesis addresses the need to create a built environment that acknowledges and responds to the stressors associated with modern lifestyle that are reinforced by a disconnection from nature. This idea is grounded in the increasing scientific evidence that supports the use of strategies for connection to nature as a way of promoting restoration possibilities and reducing demands imposed by the environment, in order to promote and maintain psychological and physiological health. Although progress has been made towards understanding how to implement biophilic design into current architectural practice, this research addresses the existing need for structure within the biophilic design strategies regarding their relationship to health and well-being benefits. In this way, a framework was developed to reorganize and restructure the biophilic design strategies according to their potential for health, while accounting for the relationship between these strategies and the influencing qualitative aspects that were identified within the literature: exposure and inhabitant’s needs. The proposed framework builds on the existing strategies provided by the field of biophilic design while restructuring them to provide a new dimension of understanding based on the theoretical fields of environmental preference and psychological restoration. In this way, this thesis provides a useful way to begin to explore and discuss the types of nature exposures and experiences that will support our need for a healthy life. This framework can be seen as a step towards providing initial guidance for designers by focusing attention on the crucial aspects of the nature-health relationship.

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Symbiosis of Nature and Design: The Essence of Biophilic Architecture

“The relationship between humankind and nature can be one of respect and love rather than domination… The outcome…can be rich, satisfying, and lastingly successful, but only if both partners are modified by their association to become better adapted to each other… With our knowledge and sense of responsibility…we can create new environments that are ecologically sound, aesthetically satisfying, economically rewarding… This process of reciprocal adaptation occurs…through minor changes in the people and their environment, but a more conscious process of designs can also take place.” 

-René Dubos, The Wooing of the Earth

Journey From Drawing Inspiration To Renewed Interest

Biophilia refers to the inherent affinity people have for the natural world. 1. Nature often has acted as a source of inspiration time and again throughout the history of architecture. From imitation that closely resembles, represents, or is reminiscent of flora and fauna , to now there is a shift of lens through which architecture forms relation with nature. There is an emerging need in contemporary cities to connect with nature, which is often viewed as a resource to be exploited or merely as an ornament. There is an increasing separation from the natural world, which is reflected in urban development and architecture. Biophilic Architecture is a design philosophy that bridges the gap and builds human relations with nature through spaces. 

Biophilic Values and Benefits

Urbanity possesses many obstacles to affiliate humans with nature, while humans evolve as living beings but have lost touch with their ‘natural habitat’. Historically, humans used to interact with nature through organic building designs and materials, in motifs, patterns, and spaces that mimic the environment. Traditionally, the architecture was in sync with nature, living close yet respectful proximity to nature. Greens were an integral part of design, green roofs and walls not just as aesthetic beauty to the space but also provided insulation and food. Architecturally, dedicated space allocation and seamless blending of local flora and fauna was an integral part of the design, which made the space feel alive.

However, in modern urbanity, the scope for greens is limited. With the advancement in industry and technology, the importance of nature has lost its importance, intruding on nature and greens being used as ornament rather than with a purpose. With the introduction of biophilic design in architecture, there are a few biophilic values and their benefits identified:

Affection: Humans are emotional beings, nature enhances the human ability to bond, care, and connect with other beings. This also contributes to creating strong emotional attachment, love, and respect for nature.

Attraction: People have a natural inclination towards nature’s aesthetics which is associated with the benefits of feeling natural harmony and symmetry, emotional and intellectual development, and induces space for imagination and creativity.

Aversion: Modern urbanism generates a repetitive claustrophobic feeling which further inclines to increase anxiety, threat and at times fear. Biophilic elements in the space enhance a sense of safety and security and bring respect for power for the greens. 

Control: In the competitive era, where everyone wants to master and dominate has become integral human traits, benefits include cognitive skills, empirical and observational abilities, critical thinking, and learning. It induces curiosity amongst the masses.

Exploitation: Instead of directly exploiting nature’s regenerative ability and abusing natural resources, associated benefits include wise use of available natural resources.

Symbolism: The human diversion towards nature’s imagery and symphony which, in contrast with modern architecture, employs benefits that include capacities for language and culture.

Spirituality: Humans experience nature which is by instinct and in search of meaning, and purpose and to connect with the living at physical and mental levels. This gives humans a meaningful and purposeful existence, increases self-confidence, and creates natural bonding.

How To Introduce Beneficial Biophilic Experience?

The biophilic design derives from a basic understanding of human evolutionary biology and how our inherent inclination to affiliate with nature has historically contributed and even today continues to contribute to human health, fitness, and wellbeing. 2. A successful implementation of biophilic design is more than introducing green roofs and walls in a built environment, it is purpose-driven. Taking into account the acquired knowledge that has been accumulated over the years and a deeper understanding of human response to the design of building and landscape, the outcome of integrating biophilic design should reflect in improving people’s health and productivity. It should focus on adapting to nature which focuses on human physical and mental health , performance, and wellbeing.

A cohesive experience should be created that complements and builds ecological connection as a whole rather than being an individualistic experience. The benefits of interrelating ecology and architecture should be felt as a substantial part of the design as a whole, rather than just generating half-hearted curiosity. People should develop emotional attachment, which translates into being part of individual identity and bringing in a sense of comfort. It should not be limiting, it can occur in settings including interior, exterior, and transitional space which further connects to the landscape. Biophilic design involves experiencing space that feels authentic and is ecologically self-sustaining. 

This can be attained by not just incorporating plants, water (which brings movement and agility to space), and animals in the built environment and creating visual and non-visual bonding with nature. Visual bonding can be created directly with plants inside and out, green roofs and living walls, water, and nature-inspired artworks. Non-visual connection takes overall conditioning and designing of the space by use of sun patches, textured materials, bird sounds, weather, and natural scents. There is a rhythmic play between the structure by enhancing sensory stimuli with clouds, shadows, and water reflection. Connecting with local biodiversity, understanding seasonal patterns and wildlife patterns. Organic and fluid building forms and sustainable structural systems play a vital role.

The reason to introduce biophilic elements to architecture is growing day by day, especially when contemporary cities are experiencing a rise in stress levels, mental health concerns, and lack of productivity. Ecologically, nature is negatively reacting to the current built environment , which concerns humans to find solutions that are concerned with issues like pollution and urban heat island effect. Successful integration of biophilic architecture reflects on multiple social, environmental, and economic levels. It provides space for biodiversity to bloom and encourages people to emerge with new ecological techniques to design biophilic architecture. It can also help overcome the dispensary of traditional architecture and modern urbanism. Even though there is still a need to dive deeper into understanding humans and their response to nature, biophilic architecture is here to start a dialogue between humans and nature.

References:

• Kellert, S. and Calabrese, E. (2015). THE PRACTICE OF BIOPHILIC DESIGN. [online] Available at: https://biophilicdesign.umn.edu/sites/biophilic-net-positive.umn.edu/files/2021-09/2015_Kellert%20_The_Practice_of_Biophilic_Design.pdf .
• Google Books. (2021). Nature by Design. [online] Available at: https://books.google.co.in/books?hl=en&lr=&id=Es1SDwAAQBAJ&oi=fnd&pg=PR7&dq=biophilic+architecture&ots=qZ7eUJyFYB&sig=z7-8YN5nmYEX0aRIESO-nifOVVg&redir_esc=y#v=onepage&q=biophilic%20architecture&f=false [Accessed 14 Jan. 2024].

Photo Credits

• Gardensbythebay.com.sg. (2024). Cloud Forest. [online] Available at: https://www.gardensbythebay.com.sg/en/things-to-do/attractions/cloud-forest.html [Accessed 15 Jan. 2024].
• Spheres. (2021). The Spheres weekend public visits. [online] Available at: https://www.seattlespheres.com/the-spheres-weekend-public-visits [Accessed 15 Jan. 2024].
• ‌Stefano Boeri Architetti. (2023). Vertical Forest | Milan | Stefano Boeri Architetti. [online] Available at: https://www.stefanoboeriarchitetti.net/en/project/vertical-forest/ [Accessed 15 Jan. 2024].
• EDGE. (2019). EDGE | EDGE Amsterdam West . [online] Available at: https://edge.tech/developments/edge-amsterdam-west [Accessed 21 Jan. 2024].
• Ateliers Jean Nouvel. (2014). One Central Park — Ateliers Jean Nouvel. [online] Available at: https://www.jeannouvel.com/en/projects/one-central-park/ [Accessed 15 Jan. 2024].
• ‌Optima. (2019). Optima Camelview Village – Optima. [online] Available at: https://www.optima.inc/projects/optima-camelview-village/ [Accessed 15 Jan. 2024].

Richa Shah is a young architect who loves to explore various stories in architecture. She is very much engrossed in researching about different topics and thinks that architecture can be evolved through writing and communicating. She is a trained classical dancer, an experimental cook, and is obsessed with history, ruins, and civilizations and wishes to explore the countless tales that lie buried beneath them.

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Home > THESES > 11296

Biophilic Architecture Used to Improve Patient Outcomes and Recovery in Behavioral Health Centers

Heidy M. Valdez Follow

Humans naturally seek adventure and the outdoors. Currently, US institutions that care for people with chronic illnesses, severe injuries, and mental health conditions often exist in neutral spaces with little to no natural elements. Because this does not promote patient happiness, patient recovery time tends to be longer. These institutions are usually not pleasant for patients or their relatives and are seen as negative spaces by the public, which should not be the case. Typical design elements include windows with thick daylight-blocking mullions to ensure no patient tries to hurt themselves, small and dark rooms, white walls, and no private spaces. This thesis examines how natural elements affect the human mind and body and how biophilic architecture reduces alienation from a built space and from natural environments. To best reveal how a designer can create spaces that positively influence people’s mental and physical health, a benchmark for the minimum requirements of biophilic design is defined. Subsequently, the findings are applied to the design of a health behavioral center to contrast a typical health institution of this kind with a building created using biophilic strategies.

Library of Congress Subject Headings

Mental health facilities--Design; Psychiatric hospitals--Design; Architecture--Environmental aspects; Organic architecture; Nature--Psychological aspects

Publication Date

Document type, student type, degree name.

Architecture (M.Arch.)

Department, Program, or Center

Architecture (GIS)

Julius J. Chiavaroli

Advisor/Committee Member

Dennis A. Andrejko

Recommended Citation

Valdez, Heidy M., "Biophilic Architecture Used to Improve Patient Outcomes and Recovery in Behavioral Health Centers" (2022). Thesis. Rochester Institute of Technology. Accessed from https://repository.rit.edu/theses/11296

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• 5 Principles of Biophilic Design in Architecture

In today’s fast-paced, urbanised world, the need to reconnect with nature has become more critical than ever. Biophilic design, a concept that integrates natural elements into the built environment, offers a solution by bringing the outdoors inside. 

This approach enhances the aesthetic appeal of spaces and significantly improves the well-being of those who inhabit them. Biophilic design creates environments that foster health, reduce stress, and promote a sense of calm by incorporating elements like natural light, greenery, and organic materials. 

Below, we’ll explore five fundamental principles of biophilic design that can transform any architectural space into a harmonious blend of nature and modern living.

Environmental Characteristics

Incorporating features such as natural light, water elements, vegetation, and organic materials not only enhances a property's aesthetic appeal but also provides a calming atmosphere that residents and tenants find rejuvenating.

Property management companies, such as Strata Town, a trusted Strata Management Perth company are increasingly preferring to incorporate these environmental characteristics into buildings. They understand the value of offering properties that connect occupants with nature. 

Properties that feature lush greenery, water features, and ample natural light are more visually appealing and contribute to the mental and physical well-being of their inhabitants. This connection to nature helps reduce stress, improve focus, and increase overall living or working environment satisfaction.

Moreover, properties designed with environmental characteristics in mind tend to have higher market value and demand, as they resonate with eco-conscious tenants looking for spaces that reflect their values. 

Property managers recognise that promoting properties with biophilic design features can attract discerning tenants seeking both luxury and a sustainable, nature-inspired living experience.

Natural Shapes and Structures

Natural shapes and structures are a key principle of biophilic design, drawing inspiration from the organic forms found in nature. 

Geometric shapes in architecture create a unique blend of form and function, enhancing the beauty of home design. Organic forms like leaves, shells, and fractals bring tranquillity and connect homes to their natural surroundings. 

Integrating these shapes into elements such as windows, furniture, and landscaping fosters a sense of harmony, seamlessly blending the built environment with nature. Architects can create aesthetically beautiful homes that are profoundly connected to their surroundings by taking inspiration from natural geometry.

Space And Lighting

Architects can create a more intimate relationship with nature by utilising natural light as much as possible and creating spacious and open areas.

Open spaces in architecture allow for integrating natural elements like vegetation and fresh air into urban landscapes, balancing functional and cultural needs. However, increasing urbanisation has reduced green spaces, impacting urban biodiversity. 

This has prompted efforts to reintroduce open areas within urban development schemes. Meanwhile, light in architecture is crucial for highlighting shapes and creating unique spaces. Both natural and artificial lighting enhance aesthetics, functionality, and efficiency in design.

Large windows, skylights, and open floor plans allow sunlight to fill a space, creating a warm, inviting atmosphere that boosts mood and productivity. Additionally, the thoughtful use of space, emphasising openness and flow, promotes freedom and relaxation. Together, space and lighting in biophilic design help create vibrant and serene environments.

Place-based Relationship

Place-based relationships are a key principle of biophilic design, emphasising the importance of creating architectural spaces deeply connected to their specific location. This approach goes beyond aesthetics, aiming to reflect the area's cultural, ecological, and geographical characteristics. 

Buildings can be in tune with their surroundings and those living in them by incorporating regional architectural traditions, natural vegetation, and locally sourced materials.

Such designs foster a sense of identity and belonging as they reflect the unique aspects of the surrounding landscape and culture. For instance, a building in a coastal area might incorporate materials like driftwood or designs that mimic the flow of water, connecting the structure to its natural setting. 

This connection enhances the space's beauty and functionality and strengthens the emotional bond between people and their environment.

Architects that prioritise place-based relationships design environments that are deeply meaningful, contextually appropriate, and sustainable, hence fostering more occupant engagement with their surroundings.

Evolved Human-Nature Relationships

Evolved human-nature relationships are a fundamental principle of biophilic design, rooted in humans' deep connection with the natural world. 

Our ancestors lived in close harmony with nature for thousands of years, and this bond has shaped our psychological and physiological well-being. In today’s urbanised environment, many of us are disconnected from these natural surroundings, leading to increased stress and reduced mental health.

Biophilic design seeks to restore this connection by integrating natural elements into our built environments. This includes using natural materials, plants, water features, and organic forms that mimic natural patterns. 

Architects use these components to create environments that connect with our innate love of nature and foster tranquillity and well-being. 

Spaces designed with evolved human-nature relationships in mind help reduce stress, improve cognitive function, and enhance overall life satisfaction. They remind us of our roots and offer a sanctuary where we can reconnect with the natural world, even within urban settings.

Biophilic design principles transform our thoughts about architecture and the built environment. Architects can design environments that are aesthetically pleasing and conducive to health and well-being by utilising the biophilic design in architecture. As the demand for sustainable and nature-inspired design continues to grow, these principles will play a crucial role in shaping the future of architecture.

By Liliana Alvarez

• Biophilic Design
• Principles of Biophilic Design in Architecture
• Biophilic Design in Architecture

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