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Biophilic smart cities: the role of nature and technology in enhancing urban resilience


The purpose of the study is to identify the main indicators and aspects for applying biophilic and smart solutions in city planning and design to achieve urban resilience. This research investigates the main definitions, elements, and attributes for biophilic design and smart city planning that help in developing resilience strategies for healthier urban environments. This study follows a methodology that comprises two approaches; first a concise review definition and principles of urban resilience. Then investigating the notions of biophilic and smart approaches to achieve healthier urban environments. Second, an analytical approach that proposes a framework for applying biophilic and smart city indicators to achieve urban resilience. The proposed framework highlights the achieved adaptive capacities for resilient cities due to adopting biophilic and smart solutions. The research results highlight a proposed relationship between principles of urban resilience, biophilic city indicators, and smart city indicators.


Resilient cities are the result of flexible and adaptive capacities that respond to disasters and sudden shocks caused by both natural and man-made factors. Moreover, it is important to respond to the raised calls regarding the rapid development of Information technology and more integration with the natural environment, which has been slightly neglected as a topic of concern [1]. For example, one of the major lessons learned from dealing with the COVID-19 crisis was to look a step back to nature with its therapeutic restorative and healing influences to mitigate the spread of the disease [2, 3]. In addition, it was our smarter and innovative technology solutions that provided us with the vaccine in a few months.

Focusing on both nature and smart technology provides the means to the current needs of our communities. However, the idea of merging between nature and technology is not relatively new. There are different cities that adopted ideas of integrating green natural environments with digital technological tools to enhance communities’ connection to nature and achieve a sustainable environment, like “Melbourne Urban Forest Visual,” an initiative integrating forests with ICT in Australia.

In this regard, this study aims to identify the main dimensions and indicators for achieving urban resilience through biophilic and smart cities’ solutions. Accordingly, the research answers two main questions; what role could biophilic and smart cities play in enhancing urban resilience practices? Will the adoption of biophilic and smart city approaches provide new solutions and strategies for contemporary urban areas?

The presented study starts with a systematic literature review which ends by a proposed framework for achieving urban resilience using biophilic and smart approaches. The research has two parts: the first part is a literature review for relevant papers and research articles that are indexed in Scopus and Web of Science databases. The initial literature review was performed between July 2020 till June 2021 using the keywords: “biophilic cities or urbanism,” “smart cities,” “resilient cities.” The reviewed papers were categorized according to the research’s main objectives to explore the necessary theoretical data for the presented research. Results of the literature review introduced biophilic and smart city approaches that might act as dimensions and principles of resilient urbanism.

The second part of the research synthesizes the key findings of the literature review using a descriptive-analytical method to investigate the cross-relationship between biophilic cities’ concept and smart city approaches on one side and urban resilience on the other side. It studies both biophilic and smart cities’ indicators’ contributions to urban resilience principles. The paper ends by proposing biophilic-smart adaptive capacities to achieve urban resilience through environmental, socio-cultural, economic, and governance/managerial actions.

Literature review

Resilience is more about recovery from a certain danger or disaster. It could be defined as the capability to become accustomed to shocks, resist various changes and rebounds [4,5,6]. Cities become resilient when they can make it through risk, danger or crisis, by using their inner strength and resolve besides adopting building forms and infrastructure [7]. Adopting resilience approaches and principles in strategies of cities helps communities live with risk and danger [7,8,9]. There is a strong relationship between resilience and sustainability with its social, economic, and ecological aspects. Both concepts aim to enhance the future life of communities by following preventive standards for resource use in the light of the emerging crises [10]. Different studies investigated the ability to adopt holistic approaches for urban resilience by distinguishing sustainability dimensions and indicators mainly; economy, society, and environment [11,12,13].

Accordingly, there were different types of outputs and findings such as the European economic and social wellbeing in the industrial regions and metropolitan areas of capital cities [14, 15]. Another output was the positive relationship between the territorial outcome and regional resilience drivers. which focused more on the economic factors in terms of innovation and investment in human capital [16, 17].

Methodology of the review

The presented research follows a systematic literature review; the latest research in the field was collected from international journals and books to build an epistemic framework for combining biophilic and smart cities’ indicators to achieve urban resilience. Therefore, the review started by using the following keywords “biophilic cities,” “biophilic urbanism,” “smart cities,” and “resilient cities” in Web of Science and Scopus databases from 2013 to 2021. A total of 707 researches—including books, journal articles and conference proceedings—were found, which was considered reliable. To narrow down the selection only English academic journals and papers that are relevant to the research objective were selected. Accordingly, 237 journal articles in Web of Science and 304 journal articles in Scopus were used in the presented review and used to build the proposed framework.

Definition and principles of urban resilience

The notion of resilience includes the idea of adaptive capacity which is an essential requirement for cities’ resilience [18] which is more about recovery from a certain danger or disaste r[4, 5]; it is the ability to plan, facilitate and implement the adaptation options [18]. Hence, it is important to include different dimensions for urban design while developing a framework for urban resilience such as; physical, environmental, economic, social, infrastructural, and institutional dimensions [18, 19]. Previous studies identified three forms of urban resilience, namely resistance, recovery, and transformation. Each one of the previous forms comes in different timing, before, during, and after the crisis respectively [19, 20]. Cities’ strategies should be implemented in different ways to ensure achieving resilience through embracing new opportunities raised from the social and environmental transformations that occurred as consequences of the current crisis, such as climate change and digital transformation [21, 22]. According to the previous literature principles of resilience can be divided into five main principles, which are fundamental to achieve urban resilience. Table 1 identifies these principles in addition to how they could be achieved according to previous studies [19, 20, 23], each of the five principles was given a code (R01–R05) to facilitate using it in the proposed framework.

Table 1 Principles of urban resilience adopted from [19, 20, 23]

Biophilic city patterns and indicators

Biophilic urbanism aims at connecting the urban setting to nature, integrating natural experience in contemporary modern urbanism, and solving ecological and social problems [24,25,26,27,28]. It deals with people as an essential part of the ecosystem. Also, it targets satisfactory experience for all people at different scales [29, 30]. Adopting biophilic elements in architecture design and urbanism is believed to have a direct impact on people’s health, like; reducing stress, emotional well-being, boosting creativity, healing effects, increasing productivit y[31,32,33]. Thus, such elements will make cities more resilient on the ecological, economic, and social levels [34, 35]. Previous studies adopted many methods to develop different lists for the elements of biophilic cities [25, 36]. However, most of the studies were more concerned with elements of biophilia on the architecture scale (interior and exterior); and few studies were more concerned with elements of biophilia on the urban scale [37, 38]. This study reviewed different biophilic design principles and patterns as summarized in Table 2.

Table 2 Biophilic principles and patterns adopted from [28, 39, 40]

Moreover, the study reviewed more than 50 indicators covering different urban scales and patterns of biophilic design. Only 40 indicators coded from B01 to B40 were selected to be adopted in this research study. The selected indicators are related to urban resilience, disasters, health, and covering urban level as shown in Fig. 1.

Fig. 1
figure 1

Biophilic city indicators adopted from [34, 35, 41,42,43]

The indicators are presented into three main categories; Biophilic infrastructure, Biophilic spaces and places (buildings, blocks, streets, neighborhoods, and regions) in addition to community and people activity. The different categories are covering both physical and non-physical aspects so it was essential to select indicators that can be measured and applied in the proposed framework [31, 32, 39].

Smart city initiatives, understandings, and indicators

The notion of a smart city could be considered a utopia. It comes from different interrelated studies in urbanism and Information and Communication Technologies (ICT) usage for development [44]. The complementary perspectives of smart cities comprise efficient technologically advanced, sustainable, and socially inclusive cities [45,46,47]. Many studies were conducted aiming to develop different sets of assessment indicators for smart cities [47,48,49]. Comprehensive outlines and overviews were conducted to achieve smartness in contemporary cities, attempting to develop frameworks for smart cities in addition to assessment tools and indicator sets [50,51,52]. The presented study reviewed well-established approaches and concepts for identifying smart city indicators and different initiatives for smart cities around the world. The reviewed studies and initiatives are; CITYKEYS’ indicators, Smart City PROFILES, City Protocol, Smart City Ranking and methods using the Key Performance Indicators (KPIs) and Triple-helix Network Model for Smart Cities Performance (SCP), Euro-pean Innovation Partnership on Smart Cities and Communities, ESETIS, Qatar smart program (TAS-MU), Smart Dubai, Smart Melbourne, Smart City Berlin Strategy, Urban Agenda for EU, City VITAlity and Sustainability (CIVITAS) [53,54,55,56,57,58,59].

This study adopted the European approach in categorizing the reviewed indicators. It identified Intelligent Smart city as a city with a good future outlook in terms of six aspects, namely smart economy, smart environment, smart living; smart people, smart mobility, and smart governance and another dimension was added which is smart data adopted from [47, 48, 60, 61]. More than 90 indicators covering the six categories were reviewed and in relevance to addressing resilience and targeting urban scale. Only 54 indicators were selected as shown in Fig. 2 categorized according to the selected European approach adopted from the reviewed literature. The indicators are given codes from S01 to S54 to be included in the framework proposed by this study.

Fig. 2
figure 2

Smart city indicators adopted from [47, 48, 60,61,62]


Different researches were conducted to identify indicators for both biophilic and smart cities in addition to different models and frameworks. However, the concept is still inconsistent; hence, appropriate and specific indicators are needed to be developed on different levels to ensure achieving urban resilience through biophilic and smart approaches. Therefore, this research adopts a descriptive-analytical approach in order to identify the interrelationship between principles of urban resilience, biophilic, and smart city indicators. This aims to answer the proposed questions regarding achieving urban resilience through biophilic and smart solutions in contemporary cities, as illustrated in Fig. 3.

Fig. 3
figure 3

Building a conceptual framework of using smart and biophilic solutions for urban resilience (Authors)

It is not a new approach to merge between biophilia and smartness. The idea has been investigated as a solution for compact cities. It has been argued that biophilic approaches are complimentary for smart ones. Moreover, it boosts sustainability and resilient approaches. Melbourne in Australia has given an example for linking both biophilic and smart or digital networks, by giving their trees email addresses linking it to human data networks [63, 64]. This initiative is named “Melbourne Urban Forest Visual”; people can easily visualize the forests’ trees and even send it an e-mail [64].

Technology can stimulate and enhance biophilic responses via digital and virtual methods and this proves that biophilic and smart approaches might be eventually intersecting; as both approaches can use digital data and target connecting people and nature together. Integration between both aspects could be achieved by dealing with urban biophilia as a distributed system and merging it with digital technology and media will improve its civilizing functions [30, 65]. However, each of the biophilic concepts and smart city ideas was applied separately to achieve resilience without much intersections on the level of indicators as appears in Fig. 4.

Fig. 4
figure 4

Achieving urban resilience through biophilic and smart approaches (Authors)

The authors ventured to outline the likely cross-relationships between indicators for biophilic cities, indicators for smart cities as discussed in [66,67,68] with principles for urban resilience at the core. These relationships give a deeper insight into reading urban resilience in terms of balancing between returning back to nature and looking forward to future technologies. It also answers the first addressed research questions about the role biophilic and smart interventions play in attaining urban resilience. The authors had to take every principle of urban resilience and test theoretically its relationship with each biophilic city and smart city indicators. One principle at a time was researched thoroughly before they were all collated together to present the final relationship diagram of all the resilience principles and the indicators of biophilic cities and smart cities at the end of this section.

To clarify the authors’ approach to creating proposed relationships between each principle of resilience and biophilic city indicators and smart city indicators, Fig. 5 shows the proposed cross-relationships between (R01) Resources and materials availability, quality, and accessibility, and the relevant indicators of both biophilic cities as an example.

Fig. 5
figure 5

Illustration for the cross-relationships between principles of urban resilience and indicators of biophilic and smart cities (showing R01 as example)

On the biophilic side, it shows the relationship between (R01) and the availability of urban ecological networks (B03) which are presented in natural vegetation, water streams, urban farms, …etc. which presents a strong resource potential that provides essential inputs for production. Similarly, to achieve (R01) Resources availability, quality, and accessibility as a principle of urban resilience, it is essential to consider blue infrastructure (B04), and the area coverage and density of urban trees (B17), vegetated swales (B18), edible landscaping (B19). This will enhance agricultural land and enhance wildlife which in turn will enhance the ecosystem and provide a healthy urban environment [12, 13, 34, 43, 65, 69,70,71,72,73,74]. Then, all similar relationships between R01 and the rest of the biophilic indicators appear in Table 4 which will not be discussed in detail because it will fog the final objective of this research paper but might be presented in further work.

On the smart city side; the relationship between (R01) Resources and materials availability, quality, and accessibility, and research and development expenditure (S01) as an essential indicator for the implementation of smart city strategies and assessment. This is important since it will help in good resources management using different strategies with the help of different digital interventions, in addition to other indicators for smart cities like internet service quality and coverage of broadband (S10) and free Wi-Fi coverage in public spaces (S13) which offers equal opportunities for accessing information and different services (normal and emergencies) in different ways that guarantee efficiency and speed actions. Another example is the significant relation between resources and materials availability and accessibility and smart solid waste collection, disposal, and treatment (S26) which guarantees efficient management for recycling and reusing waste materials in ways that promote zero-waste system achievement [4, 8, 15, 22, 23, 46, 47, 53, 54, 59, 69, 77, 81]. Tables 3 and 4 show further explanation for the cross-relationships between indicators for both approaches and (R01) Resources and materials availability, quality, and accessibility. It presents the different sources used to identify and verify the relationship between the indicators of biophilic (Table 3) and smart cities (Table 4) and the principles of urban resilience.

Table 3 Illustration for biophilic city indicators and R01 principle of urban resilience
Table 4 Illustration for smart city indicators and R01 principle or urban resilience

Moreover, Table 5 and Table 6 were established to trace and support the collated relationships between the five principles of urban resilience (R01–R05) and both biophilic and smart city indicators.

Table 5 Mapping relationship between biophilic cities indicators and principles of urban resilience (Authors)
Table 6 Mapping relationship between smart cities indicators and principles of urban resilience (Authors)

Accordingly, Fig. 6 shows the cross-relationships between the principles of urban resilience and the indicators of both smart and biophilic cities reflecting the authors’ opinion. The proposed relationships (as shown in the diagram) will be the base for more research on the development of a framework for achieving urban resilience through biophilic and smart approaches. It could be regarded as a preliminary guideline for implementing novel biophilic/smart solutions for more resilient cities.

Fig. 6
figure 6

Cross-relationship between principles of urban resilience and indicators of biophilic and smart cities (Authors)

Results and discussion

Based on the previous assessment, a framework illustrating the main contribution to this study in which the research question was addressed—what role could biophilic and smart cities play in enhancing urban resilience practices?—The idea of the proposed framework is based on Tim Beatley and Peter Newman description for the pathways to urban resilience using biophilic solutions to achieve healthy and effective adaptive capacities leading to resilient outcomes [34] and Papa et. al. (2015) who illustrated different strategies linking resilience and smart city concepts which is very helpful for modeling the idea of a smart resilient city [89]. In addition to the framework developed by Tabiban and Movadeh, which describes five entities to achieve urban resilience (social, economic, environmental, infrastructure and institutional) [90].

Evidence of the study results proposes implementing smart biophilic approaches, with all its aspects (Biophilic infrastructure, Biophilic spaces and places and community and people activity), along with smart city indicators including all its aspects (smart economy, smart people, smart environment, smart living, smart mobility, and smart data), all together to fulfill the principles of urban resilience. This aims to reach a biophilic smart adaptive capacity to face the consequences of different disasters and crises. The achieved adaptive capacity could be identified by four dimensions (environmental, socio-cultural, economic and governance, and management) as shown in detail in Fig. 7.

Fig. 7
figure 7

Framework for adopting biophilic and smart cities indicators to achieve urban resilience (as a complement to Fig. 6)

The study illustrates how achieving urban resilience could be promoted depending on nature-based solutions and the adoption of smart solutions, through biophilic and smart approaches. It highlights the essential integration between different systems, methods, and strategies to enhance the integration of nature within contemporary urban settings. Along with the integration of smart ICT solutions supporting communities, the economy, and collaborative governance. In addition to focusing on security, privacy, financial support, and information consistency for the rising requirements for technological updates. In this regard, the proposed framework includes three main phases. The first phase illustrates the integration between principles of urban resilience with indicators of both biophilic cities and smart cities. The second phase is the result of the first one; it shows biophilic smart adaptive capacity. The resulted outcomes are presented in four dimensions: environmental which targets reducing ecological damages and increasing climate resilience, socio-cultural which targets enhancing responses and recovery plans of communities, economic which targets enhancing economic support and reducing economic disturbance and disruptions, and governance and management which targets returning cities back to its normal state. All this aims at creating healthier and smarter environments which includes distinctive urban settings and places with enhanced urban qualities that promote people’s urban life. The third phase is the main resilient outcome of the proposed framework; it is presented in general actions representing both biophilic and smart interventions.

These actions fulfill the previously illustrated targets from the second phase, like reducing ecological damages by increasing the ecological footprints and adopting smart governance for urban ecosystems in addition to applying ecosystem restoration and conservation projects. Also enhancing communities’ responses by increasing social support, creating distinctive interactive places, spreading community gardens and pocket parks to enhance people’s connection with nature, and improving community engagement through ICT platforms. Enhancing economic support and reducing economic disruptions by controlling the economic shocks and ensuring the balance between public supply and demand, promoting smart green economy, and expanding urban economic structure. Returning back to cities’ normal state by establishing long-term plans to enhance the adaptive capacities; establishing green space decision-making processes, strategies, and management plans; and developing smart and innovative methods to ensure the completeness of education on different levels, ensuring the gain of knowledge and developing skills of younger generations is essential for community development.

The relationship between principles of urban resilience and both biophilic and smart approaches is reflected in the three phases of the proposed framework. This shows the importance of updating a long-term vision for more integration of biophilic and smart interventions in urban design and planning strategies. This enhances the redundancy of communities, buildings, and infrastructure.

It helps in increasing public health by creating a safer and healthier natural urban environment that connects people more with nature.

The various facets of the highlighted empirical study supported the notion that “implementing biophilic and smart strategies through the integration of different urban resilience dimensions is essential to achieve healthier and greener cities to help to face the consequences of different disasters” and answers the second proposed research question - will adopting biophilic and smart approaches provide new solutions and strategies for contemporary urban areas?—which is also highlighted the integration between different systems and processes for enhancing the role of smart and biophilic approaches supporting the economy and governance, besides socio-cultural and economic aspects.


This study identified the likely indicators for biophilic and smart cities that could be adopted together in a way to achieve cities’ resilience. The research study identified the deployed key indicators for both biophilic and smart cities. This occurred by reviewing previous researches, case studies, and initiatives regarding biophilic cities and smart cities. This study also recalled the main principles and dimensions of urban resilience to understand how it works and to point out its interrelationship with biophilic smart approaches.

The research study synthesized the indicators of smart and biophilic indicators with the reviewed urban resilience principles. It points out in the light of achieving urban resilience; decision-makers should focus more on smart and biophilic solutions that might have substantial contributions relevant to urban resilience. These solutions should be responding to various pressures and changes in environmental conditions, socio-economic needs and enhancing safety and health for communities. Findings answered the research questions regarding the role that biophilic and smart approaches could play in achieving urban resilience. Disasters alter how cities are governed and administered. In light of this; the presented study proposes new natural and smart interventions. Both biophilic and smart interventions could enhance the functionality of cities’ systems and components, with the aid of research and development, adopting green strategies to achieve a healthier environment and strong adaptive city structure in face of disasters. This could be enhanced by adopting smart and new digital solutions to offer different solutions for various situations in contemporary urban areas, which specifically need new updated tools.

Results show a significant contribution of biophilic and smart interventions that encourages cities to become more resilient which complies with Russo and Cirella who discussed the potential of biophilic smart cities and its benefits to eco-system services and contemporary urbanization [30] and in ecological applications as discussed in [1]. Moreover, comparing the research results to the recent studies in the field, it must be pointed out that the proposed biophilic-smart adaptive capacities to achieve urban resilience can help in promoting smart and sustainable urban development as suggested by Abusaada and Elshater since it contributes to the distinctiveness in smart cities [91].

The research study has some limitations. The lack of prior data combining both biophilic and smart city indicators. Reviewing and analyzing biophilic and smart literature showed that there are important gaps in this field of research. This resulted in subjectivity in the selection of the relevant indicators. Besides, there is a lack of the existence of comprehensive frameworks and methodologies that could be used as tools for evaluating concepts of biophilia and smart city dimensions contributing to urban resilience. Therefore, integration between both biophilic and smart interventions must be investigated deeply.

Findings and conclusions point out suggestions for future research, namely further development of the proposed framework that incorporates biophilic and smart cities’ indicators and urban resilience principles through a quantitative approach and further analysis of previous case studies, in addition to developing a decision-making method or tool to achieve resilient strategies using biophilic and smart city indicators altogether and mapping its contribution to UN SDGs to assist in achieving sustainability for communities.

Availability of data and materials

All data generated or analyzed during this study are included in this published article.



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  1. Rasmi DM, Zayed MA, Dewidar KM, Gabr HS (2021) Towards forming a socio-ecological action model for urban open spaces’ design in New Cairo, Egypt. J Eng Appl Sci 68(1).

  2. Jallow H, Renukappa S, Suresh S (2020) The impact of COVID-19 outbreak on United Kingdom infrastructure sector. Smart Sustain Built Environ, vol. ahead-of-print, no. ahead-of-print.

  3. McCunn LJ (2020) The importance of nature to city living during the COVID-19 pandemic: considerations and goals from environmental psychology. Cities Health:1–4.

  4. Chan J, Zhang Y (2019) Urban resilience in the smart city. In: The 12th conference of the international forum on urbanism: beyond resilience Retrieved from:

    Google Scholar 

  5. Clarke NJ, Kuipers MC, Roos J (2019) Cultural resilience and the smart and sustainable city: exploring changing concepts on built heritage and urban redevelopment. Smart Sustain Built Environ 9(2):144–155.

    Article  Google Scholar 

  6. Ferrari M (2020) Reflexive governance for infrastructure resilience and sustainability. Sustainability 12(23).

  7. Gulyas BZ, Edmondson JL (2021) Increasing city resilience through urban agriculture: challenges and solutions in the Global North. Sustainability 13(3).

  8. Sharifi A, Yamagata Y (2014) Resilient urban planning: major principles and criteria. Energy Procedia 61:1491–1495.

    Article  Google Scholar 

  9. Sócio C, Federal U, Maier SM, Silva F (2020) Urban resilience and sustainable development policies An analysis of smart cities in the state of São Paulo. Revista de Gestão 27(1):61–78.

    Article  Google Scholar 

  10. UN-Habitat, “Trends in urban resilience,” UN Habitat, 2017, p. 172, 2017.

  11. Folke C (2006) Resilience : The emergence of a perspective for social – ecological systems analyses. Glob Environ Chang 16:253–267.

    Article  Google Scholar 

  12. Meerow S, Newell JP, Stults M (2016) Defining urban resilience : a review. Landsc Urban Plan 147:38–49.

    Article  Google Scholar 

  13. Ni’mah NM, Lenonb S (2017) Urban greenspace for resilient city in the future: case study of Yogyakarta City. IOP Conf Ser Earth Environ Sci 70(1):–8.

  14. Khansari N, Mostashari A, Mansouri M (2014) Impacting sustainable behavior and planning in smart city. Int J Sustain L Use Urban Plan 1(2). Retrieved from:, accessed: July, 2021

  15. OECD (2020) Re-spacing our cities for resilience. Int Transp Forum:1–10 Available: accessed: February 2021

  16. Bristow G, Healy A (2018) Innovation And regional economic resilience: an exploratory analysis. Ann Reg Sci 60(2):265–284.

    Article  Google Scholar 

  17. Khan AKH, Vasilescu L (2008) Disaster management cycle – a theoretical approach. Manag Mark J 6:43–50 Retrieved from:–-a-theoretical-approach-Khan-Vasilescu/2ca6f4c8106d76d6db38d1e26f062f1758b365cb, accessed: March, 2021

    Google Scholar 

  18. de Bruijn K, Buurman J, Mens M, Dahm R, Klijn F (2017) Resilience in practice: five principles to enable societies to cope with extreme weather events. Environ Sci Policy 70:21–30.

    Article  Google Scholar 

  19. Birkeland JL (2014) Positive development and assessment. Smart Sustain Built Environ 3(1):4–22.

    MathSciNet  Article  Google Scholar 

  20. Sharifi A, Yamagata Y (2017) Towards an integrated approach to urban resilience assessment. APN Sci Bull 7(1).

  21. Tabibian M, Rezapour M (2016) Assessment of urban resilience; a case study of Region 8 of Tehran city, Iran. Scientia Iranica 23(4):1699–1707.

    Article  Google Scholar 

  22. Albuquerque R, Koskinen Y, Yang S, Zhang C (2020) Resiliency of environmental and social stocks: an analysis of the exogenous COVID-19 market crash. Rev Corporate Finance Stud 9(3):593–621.

    Article  Google Scholar 

  23. Pavel A, Moldovan BA, Kourtit K, Nijkamp P (2020) Urban or rural: does it make a difference for economic resilience? A modelling study on economic and cultural geography in Romania. Sustainability 12(9).

  24. Gullone E (2000) The biophilia hypothesis and life in the 21st century : increasing mental health or increasing pathology ? J Happiness Stud 1:293–321.

    Article  Google Scholar 

  25. Gunderson R (2014) Erich Fromm’s ecological messianism. Humanity Soc 38(2):182–204.

    Article  Google Scholar 

  26. Heymans A, Breadsell J, Morrison GM, Byrne JJ, Eon C (2019) Ecological urban planning and design: a systematic literature review. Sustain 11(13).

  27. Krčmářová J (2017) E. O. Wilson ’ s concept of biophilia and the environmental movement in the USA. Internet J Hist Geogr Environ Hist 6(2):4–17 Retrieved from:’s_concept_of_biophilia_and_the_environmental_movement_in_the_USA, accessed: March, 2021

    Google Scholar 

  28. Ryan CO, Browning WD, Clancy JO, Andrews SL, Kallianpurkar NB (2014) Biophilic design patterns: emerging nature-based parameters for health and well-being in the built environment. ArchNet-IJAR 8(2):62–76 Available: accessed: March, 2021

    Article  Google Scholar 

  29. Andreucci MB, Russo A, Olszewska-Guizzo A (2019) Designing urban green blue infrastructure for mental health and elderly wellbeing. Sustainability 11(22).

  30. A. Russo and G. T. Cirella, “Biophilic cities : planning for sustainable and smart urban environments,” in Smart Cities Movements in Brics, 2017. Retrieved from:, accessed: February, 2021.

  31. Gillis K, Gatersleben B (2015) A review of psychological literature on the health and wellbeing benefits of biophilic design. Buildings 5(3):948–963.

    Article  Google Scholar 

  32. Xue F, Gou Z, Lau SS, Lau S, Chung K (2019) From biophilic design to biophilic urbanism : stakeholders ’ perspectives. J Clean Prod 211:1444–1452.

    Article  Google Scholar 

  33. Tok E, Ağdaş MG, Özkök MK, Kuru A (2020) Socio-psychological effects of urban green areas : case of Kirklareli City Center. J Contemp URBAN Aff 4(1):47–60.

    Article  Google Scholar 

  34. Beatley T, Newman P (2013) Biophilic cities are sustainable, resilient cities. Sustainability 5(8).

  35. Reeve AC, Desha C, Hargreaves D (2015) Biophilic urbanism : contributions to holistic urban greening for urban renewal. Smart Sustain Built Environ 4(2):215–233.

    Article  Google Scholar 

  36. Sharifi A (2019) A critical review of selected smart city assessment tools and indicator sets. J Clean Prod 233:1269–1283.

    Article  Google Scholar 

  37. B. L. Yost, “A critical review of biophilia and place attachment literature a critical review of biophilia and place attachment literature a critical review of biophilia and place attachment literature presented at the Hawaii International Conference Honolulu, HI Bam,” in Hawaii International Conference, 2011, no. February, pp. 1–22. Retrieved from:, accessed: June, 2021.

  38. Birkeland JL (2016) Net positive biophilic urbanism. Smart Sustain Built Environ 5(1):9–14.

    Article  Google Scholar 

  39. Sharifi M, Sabernejad J (2016) Investigation of Biophilic architecture patterns and prioritizing them in design performance in order to realize sustainable development goals. Eur Online J Nat Soc Sci 5(3):325–337 Available: , accessed: July, 2021

    Google Scholar 

  40. W. D. Browning, C. O. Ryan, and J. O. Clancy, 14 Patterns of biophilic design: improving health & well-being in the built environment. Terrapin Bright Green LLC, 2014. Retrieved from:, accessed: July 2021.

  41. K. Gillis, “Nature-based restorative environments are needed now more than ever,” Cities & Health, pp. 1–4, Aug. 2020, doi:

  42. Beatley T (2010) Biophilic cities: integrating nature into urban design and planning. Island Press, Washington, DC, USA Retrieved from:, accessed: March 2021

    Google Scholar 

  43. H. Littke, “Becoming biophilic: challenges and opportunities for biophilic urbanism in urban planning policy,” Smart Sustain Built Environ., vol. 5, no. 1, pp. 15–24, 2016, doi:

  44. H. Voordijk and S. Dorrestijn, “Smart city technologies and figures of technical mediation,” Urban Res. Pract., vol. 0, no. 0, pp. 1–26, 2019, doi:

  45. Bibri SE (2019) On the sustainability of smart and smarter cities in the era of big data: an interdisciplinary and transdisciplinary literature review. J. Big Data 6(1).

  46. L. Kamal-Chaou, “Smart cities and inclusive growth,” 2020. [Online]. Available:

  47. A. Sharifi, A typology of smart city assessment tools and indicator sets, Sustainable Cities and Society vol. 53, no. November. 2020.

  48. V. Albino, U. Berardi, and R. M. Dangelico, “Smart cities : definitions, dimensions, performance, and initiatives,” J. Urban Technol., vol. 22, no. 1, pp. 3–21, 2015, [Online].

  49. Smart Cities World, “How 5g-powered robots are helping China fight coronavirus,” 2020., accessed: March, 2021.

    Google Scholar 

  50. Apanaviciene R, Vanagas A, Fokaides PA (2020) Smart building integration into a smart city (SBISC): Development of a new evaluation framework. Energies 13(9).

  51. Nikitas A, Michalakopoulou K, Njoya ET, Karampatzakis D (2020) Artificial intelligence, transport and the smart city: definitions and dimensions of a new mobility era. Sustainability 12(7).

  52. Toli AM, Murtagh N (2020) The concept of sustainability in smart city definitions. Frontiers in Built Environment 6.

  53. Al-Thani SK, Skelhorn CP, Amato A, Koc M, Al-Ghamdi SG (2018) Smart technology impact on neighborhood form for a sustainable Doha. Sustain. 10(12):1–17.

    Article  Google Scholar 

  54. City of Berlin, “Smart city strategy Berlin,” 2015. [Online]. Available:, accessed: Januray 2021.

  55. City of Melbourne, “Melbourne as a smart city,” 2020., accessed: August, 2020

  56. CIVITAS Initiative, “CIVITAS: Cleaner and better transport in cities,” 2013. is a network for City VITAlity and Sustainability.

  57. Klima- und Energiefonds, “Smart city profiles,” 2018. Retrieved from: accessed: December 2020.

  58. Kourtit K et al (2013) An advanced triple helix network framework for smart cities performance. Smart Cities Governing, Model. Anal. Transit:196–216.

  59. Rizzo A (2014) Rapid urban development and national master planning in Arab Gulf countries . Qatar as a case study. Cities 39:50–57.

    Article  Google Scholar 

  60. Barletta VS, Caivano D, Dimauro G, Nannavecchia A, Scalera M (2020) Managing a smart city integrated model through smart program management. Applied Sciences 10(2).

  61. Meijer A, Rodrı MP (2016) Governing the smart city : a review of the literature on smart urban governance. Int. Rev. Adm. Sci.

  62. Moch N, Wereda W (2020) Smart security in the smart city. Sustainability 12(23).

  63. Australian government, Future cities planning for our growing population, no. February. Infrastructure Australia, 2018. Retrieved from: Accessed: September, 2020.

  64. City of Melbourne & Oom Creative, “Urban forest visual,” 2020. Accessed: August, 2020.

  65. C. C. Konijnendijk van den Bosch, “Tree agency and urban forest governance,” Smart Sustain. Built Environ., vol. 5, no. 2, pp. 176–188, 2016, doi:

    Article  Google Scholar 

  66. Oliveira TA, Oliver M (2020) Challenges for connecting citizens and smart cities. Sustain. 1996:1–21.

    Article  Google Scholar 

  67. Pons O, de la Fuente A, Aguado A (2016) The use of MIVES as a sustainability assessment MCDM method for architecture and civil engineering applications. Sustain 8(5).

  68. Totaforti S (2020) Emerging biophilic urbanism: the value of the human–nature relationship in the urban space. Sustainability 12(13).

  69. Tcholtchev N, Schieferdecker I (2021) Sustainable and reliable information and communication technology for resilient smart cities. Smart Cities 4(1).

  70. Panlasigui S, Spotswood E, Beller E, Grossinger R (2021) Biophilia beyond the building: applying the tools of urban biodiversity planning to create biophilic cities. Sustainability 13(5).

  71. Cabanek A, Elena M, De Baro Z, Newman P (2020) Biophilic streets : a design framework for creating multiple urban benefits. Sustain. Earth 3(7):1–17 [Online]. Retrieved from:

    Google Scholar 

  72. J. Bermudez, A. C. Smith, and S. Striefel, “Visualizing the non-visual nature of architecture,” 2005. Retrieved from:, accessed: September, 2021.

  73. Sañudo-Fontaneda LA et al (2020) Descriptive analysis of the performance of a vegetated swale through long-term hydrological monitoring: a case study from Coventry, UK. Water 12(10).

  74. Cepeliauskaite G, Stasiskiene Z (y) The framework of the principles of sustainable urban ecosystems development and functioning. Sustain 12(2).

  75. Ignat R, Constantin M (2020) Multidimensional facets of entrepreneurial resilience during the COVID-19 crisis through the lens of the wealthiest Romanian counties. Sustainability 12(23).

  76. P. Bosch, S. Jongeneel, V. Rovers, H.-M. Neumann, M. Airaksinen, and A. Huovila, “City keys indicators for smart city projects and smart cities,” CITYKeys, no. July 2018, p. 305, 2017, doi:

  77. M. Hämäläinen, “A framework for a smart city design: digital transformation in the Helsinki smart city,” in Entrepreneurship and the community: a multidisciplinary perspective on creativity, social challenges, and business, no. September 2019, Cham, Switzerland: Springer International Publishing, 2020, pp. 63–86.

  78. Nitoslawski SA, Galle NJ, van den Bosc CK, Steenberg JWN Smarter ecosystems for smarter cities? A review of trends, technologies, and turning points for smart urban forestry. Sustain. Cities Soc 51, no. August, 2019.

  79. Ibrahim M, El-Zaart A, Adams C (2018) Smart sustainable cities roadmap: readiness for transformation towards urban sustainability. Sustain. Cities Soc. 37:530–540.

    Article  Google Scholar 

  80. Al Nuaimi E, Al Neyadi H, Mohamed N, Al-Jaroodi J (2015) Applications of big data to smart cities. J. Internet Serv. Appl. 6(1):25.

    Article  Google Scholar 

  81. Randeree K, Ahmed N (2019) The social imperative in sustainable urban development: the case of Masdar City in the United Arab Emirates. Smart Sustain. Built Environ. 8(2):138–149.

    Article  Google Scholar 

  82. Berto R, Maculan N, Barbiero G (2020) Does sustainability address perceived restoration ? In: An exploratory study on Biosphera 2.0, a net zero energy house, pp 17–30.

    Chapter  Google Scholar 

  83. P. Newman, “Biophilic urbanism: a case study on Singapore,” Aust. Plan., vol. 51, no. 1, pp. 47–65, Jan. 2014, doi:

  84. P. Ro, D. Jones, P. Downton, and J. Zeunert, “Biophilic railway stations : re-imagine the nature of transit design,” in IFLA World Congress Singapore, 2018, pp. 800–813, [Online]. Available:, accessed: July, 2021.

  85. van den Bosch M, Ode Sang Å (2017) Urban natural environments as nature-based solutions for improved public health – a systematic review of reviews. Environ. Res. 158:373–384.

    Article  Google Scholar 

  86. Hanzl M (2020) Urban forms and green infrastructure – the implications for public health during the COVID-19 pandemic. Cities Heal 00(00):1–5.

    Article  Google Scholar 

  87. Zingoni de Baro ME, Macedo J (2020) In: Fanfani D, Matarán Ruiz A (eds) The role of regenerative design and biophilic urbanism in regional sustainability. The case of Curitiba BT - bioregional planning and design: Volume II: Issues and practices for a bioregional regeneration. Springer International Publishing, Cham, pp 225–241.

    Chapter  Google Scholar 

  88. Ely M, Pitman SD (2014) Green infrastructure: life support for human habitats

    Google Scholar 

  89. Papa R, Galderisi A, Vigo Majello MC, Saretta E (2015) Smart and resilient cities. A systemic approach for developing cross-sectoral strategies in the face of climate change. TeMA - Journal of Land Use, Mobility and Environment 8(1):19–49.

    Article  Google Scholar 

  90. M. Tabibian and S. Movahed, “Towards resilient and sustainable cities: a conceptual framework,” Scientia Iranica., vol. 23, pp. 2081–2093, Oct. 2016, doi:

  91. Abusaada H, Elshater A (2021) Competitiveness, distinctiveness and singularity in urban design: a systematic review and framework for smart cities. Sustain. Cities Soc. 68:102782.

    Article  Google Scholar 

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ST conceived and designed the research and collected and analyzed data; AO conceived and designed the research then read and revised the manuscript; both authors have read and approved the final manuscript.

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Tarek, S., Ouf, A.S.ED. Biophilic smart cities: the role of nature and technology in enhancing urban resilience. J. Eng. Appl. Sci. 68, 40 (2021).

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  • Biophilic cities
  • Digital technology
  • Restorative urbanism
  • Smart cities
  • Urban resilience