CRITICAL ASPECTS, MOTIVATORS AND BARRIERS OF BUILDING-INTEGRATED VEGETATION

Authors

DOI:

https://doi.org/10.15320/ICONARP.2020.107

Keywords:

Building-Integrated Vegetation, Green Roofs, Green Walls, Interior Gardens

Abstract

Purpose

Green buildings which provide improved user health conditions and environmentally responsible applications have gained significant attention, due to the increasing environmental problems, particularly caused by the construction industry at the global scale. However, vegetation is still not sufficiently integrated into buildings, even though numerous benefits of plants have been proven by many studies in literature.

This research aims to find out the opinions of professionals and academicians in architecture-related fields regarding the critical aspects, as well as the motivators and barriers faced in BIV applications, namely; green roofs, green walls and interior gardens. Hence, it strives to help increase their application rates by underlining the significant issues to be considered.

 Design/methodology/approach

As to fulfilling these objectives, a questionnaire survey was conducted on 120 participants with varying professions including architects, landscape designers and civil engineers, from four countries.

Findings

The results of this study pointed out that, healthcare buildings were given the first priority among the building types for applying BIV. Moreover, among the motivator factors, receiving a certificate was found as an important incentive, besides the environmental, social and economic benefits of BIV. Furthermore, although the highly rated barriers were found as ‘the lack of proper regulations’ and ‘lack of demand by the user/client’, the findings showed that the highest responsibility for the implementation of these applications was placed on the architect.

Research Limitations/Implications

Based on the five major groups of Köppen climate classification system, the case countries were selected as one from each of the four main types, and by neglecting only Polar, as it lacks settlements. By considering diverse levels of development and economic welfare, countries were selected as; Canada (Snow: Humid-Subarctic), Libya (Dry: Desert-arid), Malaysia (Tropical: Tropical-Rain forest) and Turkey (Mild temperate: Mediterranean).

Since the study covered four different countries, the survey was conducted by the use of Google Forms software program. This tool enabled the production and distribution of questionnaires, as well as the collection of data based on the responses of the participants. Furthermore, in order to provide consistency among the questionnaires applied in different countries, the survey was conducted in English language, although it was not the native language for a majority of the participants.

Moreover, based on studies claiming that participants are more inclined to select the option with the mid-value in a Likert scale, which implies a neutral position, in the questionnaire, these types of questions were constructed with the forced choice method, by keeping the scales with even number of options.

Practical Implications

It is expected that the results of this study would be beneficial to both the academicians and professionals involved in the green building industry, as well as to the governmental and/or green building authorities. It is expected that this study will help serve as a guide for the stakeholders to increase the application rates of BIV in the construction industry.

Social Implications

The results of this study were also evaluated based on the findings of four case countries and certain conclusions were derived as to their underlying socio-economic and geographical reasons.

Originality/value - Although studies on similar subjects have appeared in the literature, there are none which solely focuses on BIV applications by conducting a survey on the mentioned four case countries and compares its findings with the literature and presents an in-depth analysis on the issue.

 

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Author Biographies

Monder Almuder, Cankaya University

Monder M. Almuder has earned his Bachelor’s Degree in the field of Architecture in 2009. Subsequently, he has worked in several projects within the construction industry. After getting his Master’s Degree in Interior Architecture in 2017 from Çankaya University, he has given courses on topics such as; Garden Design, Urban Planning and Architecture in various educational institutions in Benghazi, Libya.

Ozge Suzer, Cankaya University

Özge Süzer received a Bachelor’s Degree in Interior Architecture and Environmental Design in 2005 from Bilkent University, Ankara, Turkey. After finishing the Master in Interior and Living Design program in Domus Academy, Milan, Italy in 2007, she attended the Department of Interior Architecture and Environment Design at Hacettepe University for her PhD studies and received her PhD in the field of Sustainable Design in 2012. She has been working at Çankaya University in the Department of Interior Architecture since 2007 and has been giving courses on Natural and Artificial Lighting, Indoor Thermal Comfort and Sustainable Design. She has several article publications and conference proceedings on issues such as; applications of sustainable architecture, green building rating systems and recycled building materials.

References

Anderson, M. (2016), "Authentically Green Interiors: Optimizing Natures Technology", working paper, Green Plants for Green Buildings, Ukiah, California, USA.

Bjerre, L. A. (2011), "Green Walls", VIA University College, Horsens, Denmark.

Brenneisen, S. (2003), "The Benefits of Biodiversity from Green Roofs: Key Design Consequences", proceedings of the 1st North American Green Roof Conference, 29-30 May 2003, pp. 323-329, Chicago, USA.

Brennek, H. and Yuen, L. (2013), "Impacts of Green Walls on Indoor Environmental Quality", University of British Columbia.

Charoenkit, S. and Yiemwattana, S. (2016), "Living walls and their contribution to improved thermal comfort and carbon emission reduction: A review", Building and Environment, 105: 82-94, doi:https://doi.org/10.1016/j.b uildenv.2016.05.031

Chen, D. and Chen, H. W. (2013), "Using the Köppen classification to quantify climate variation and change: An example for 1901–2010", Environmental Development, 6: 69-79, doi:https://doi.org/10.1016/j.envdev.2013.03.007

Clark, C. E. (2008), "Energy Emissions Mitigation Using Green Roofs: Probabilistic Analysis and Integration in Market-Based Clean Air Policies", The University of Michigan.

Daly, A. and Zannetti, P. (2007), "An Introduction to Air Pollution–Definitions, Classifications, and History Ambient Air Pollution", pp. 1-14, The Arab School for Science and Technology, The Enviro-Comp Institute.

Dwivedi, A. and Mohan, B. K. (2018), "Impact of green roof on micro climate to reduce Urban Heat Island", Remote Sensing Applications: Society and Environment, 10: 56-69, doi: https://doi.org/10.1016/j.rsase.2018.01.003

Elgizawy, E. M. (2016), "The Effect of Green Facades in Landscape Ecology", Procedia Environmental Sciences, 34: 119-130, doi:https://doi.org/10.1016/j.proenv.2016.04.012

Elliot, T. (2008), "Green roofs growing in popularity", available at:.https://www.smh.com.au/environment/sustainability/green-roofs-growing-in-popularity-20080917-gdsv7l.html (accessed 03 August 2018)

Elston, S. (2000), "Green Rooftop Technology Saves Energy, Cools Air", Environmental News.

Engleback, L., Grant, G., Nicholson, B., Gedge, D., Frith, M. and Harvey, P. (2003), "Green Roofs: Their Existing Status and Potential for Conserving Biodiversity in Urban Areas", English Nature Research Reports, 498, pp. 9-59.

EPA (2016), "Heat Islands: Using Green Roofs to Reduce Heat Islands", available at: https://www.epa.gov/heat-islands/using-green-roofs-reduce-heat-islands#1 (accessed 19 March 2018)

FLL (2002), "Guidelines for the Planning, Execution and Upkeep of Green-Roof Sites" available at: https://www.researchgate.net/publication/287171361_Guidelines_for_the_Planning_Execution_and_Upkeep_of_Green-Roof_Sites_English_version (accessed 21 March 2018)

Franco, A., Fernández-Cañero, R., Pérez-Urrestarazu, L. and Valera, D. L. (2012), "Wind tunnel analysis of artificial substrates used in active living walls for indoor environment conditioning in Mediterranean buildings", Building and Environment, 51: 370-378, doi:https://doi.o rg/10.1016/j.buildenv.2011.12.004

Grimmer, A. E., Hensley, J. E., Petrella, L. and Tepper, A. T. (2011), "The Secretary of the Interior’s Standards for Rehabilitation and Illustrated Guidelines on Sustainability for Rehabilitating Historic Building", Washington D.C.

Gündoğan, H. (2012), "Motivators and Barriers for Green Building Construction Market in Turkey", Doctoral dissertation, Middle East Technical University.

Hartig, T. and Cooper Marcus, C. (2006), "Essay: Healing gardens; Places for nature in health care”, Lancet, 368: S36-S37, doi:10.1016/S0140-6736(06)69920-0

Hui, S. C. M. (2011), "Technical Guidelines for Green Roofs Systems in Hong Kong", CIBSE Hong Kong Branch.

Larson, C. (2016), "Indoor Farming Set to Surge in Asia This Year: Experts", available at: http://cleantechiq.com/2016/02 /indoor-farming-set-to-surge-in-asia-this-year-experts/ (accessed 05 March 2017)

Lavrakas, P. J. (2008), Encyclopedia of Survey Research Methods, SAGE Publications Inc., California, USA.

Lawlor, G. (2006), Green Roofs: A Resource Manual for Municipal Policy Makers, Canada Mortgage and Housing Corporation, Ottawa.

Lee, A. C. and Maheswaran, R. (2011), "The Health Benefits of Urban Green Spaces: A Review of the Evidence", Journal of Public Health, 33(2): 212-222, doi: 10.1093/pubmed/fdq068

Li, W. C., Yeung, K. K. A. (2014), "A comprehensive study of green roof performance from environmental perspective", International Journal of Sustainable Built Environment, 3(1): 127-134, doi:https://doi.org/10.1016/j.ijsbe.2014. 05.001

Liu, T. C., Shyu, G. S., Fang, W. T., Liu, S. Y. and Cheng, B. Y. (2012), "Drought tolerance and thermal effect measurements for plants suitable for extensive green roof planting in humid subtropical climates", Energy and Buildings, 47: 180-188, https://doi.org/10.1016/j.enbuild.2011.11.043

Loh, S. (2008), "Living walls - A way to green the built environment", BEDP Environment Design Guide, 1, pp. 1-7.

Miklos, O. (1998), "Green Roofs", Ybl School of Building Sciences, SZIU.

OCCDC (n.d.), "The Power of Concrete: The Advantages of Reinforced Concrete Building Framing Systems", available at: http://www.occdc.org/wp-content/uploads/power_of_concrete.pdf (accessed 25 August 2018)

Ottelé, M., Perini, K., Fraaij, A. L. A., Haas, E. M. and Raiteri, R. (2011), "Comparative life cycle analysis for green façades and living wall systems", Energy and Buildings, 43(12): 3419-3429, doi:https://doi.org/10.1016/j.enbuild.2011.09.010

Perry, R. C. (2010), Landscape Plants for California Gardens, Land Design Publishing, USA.

Pugh, T. A., MacKenzie, A. R., Whyatt, J. D. and Hewitt, C. N. (2012), "Effectiveness of green infrastructure for improvement of air quality in urban street canyons", Environmental Science & Technology, 46(14): 7692-7699.

Sadeghian, M. M. (2016), "A Review on Green Wall, Classification and Function", International Journal of Scientific Research in Science and Technology, 2(2): 47-51.

Shackell, A. and Walter, R. (2012), Greenspace Design for Health and Well-Being, Forestry Commission, Edinburgh.

Sharp, R., Sable, J., Bertram, F., Mohan, E. and Peck, S. (2008), "Introduction to green walls: Technology, benefits and design", Green Roofs for Healthy Cities.

Stand, B. and Peck, S. W. (2017), "2016 Annual Green Roof Industry Survey Executive Summary", Green Roofs for Healthy Cities, available at: https://static1.squaresp ace.com/static/58e3eecf2994ca997dd56381/t/5967869229687ff1cfbb6ada/1499956889472/GreenRoofIndustrySurvey2016ExecutiveSummary.pdf (accessed 02.05.2018)

Sutton, R. K. (2013), "Seeding green roofs with native grasses", Journal of Living Architecture, November 2013: 1-20.

Tassicker, N., Rahnamayiezekavat, P. and Sutrisna, M. (2016), "An insight into the commercial viability of green roofs in Australia", Sustainability, 8(7): 603, doi: 10.3390/ su8070603.

Timur, Ö. B. and Karaca, E. (2013), "Vertical Gardens", in Özyavuz, M. (Ed.), Advances in Landscape Architecture, Intech Open, doi:10.5772/55763.

USGSA. (2011), "The Benefits and Challenges of Green Roofs on Public and Commercial Buildings", available at: https://www.gsa.gov/cdnstatic/The_Benefits_and_Challenges_of_Green_Roofs_on_Public_and_Commercial_Buildings.pdf (accessed 12.06.2018)

Victorero, F., Vera, S., Bustamante, W., Tori, F., Bonilla, C., Gironás, J. and Rojas, V. (2015), "Experimental study of the thermal performance of living walls under semiarid climatic conditions", Energy Procedia, 78: 3416-3421, doi:10.1016/j.egypro.2015.12.160

Wilkinson, S., Lamond, J., Proverbs, D. G., Sharman, L., Heller, A. and Manion, J. (2015), "Technical considerations in green roof retrofit for stormwater attenuation in the Central Business District", Structural Survey, 33(1): 36-51, doi:10.1108/SS-07-2014-0031

Wong, I. and Baldwin, A. N. (2016), "Investigating the potential of applying vertical green walls to high-rise residential buildings for energy-saving in sub-tropical region", Building and Environment, 97: 34-39, doi:https://doi.or g/10.1016/j.buildenv.2015.11.028

Zupancic, T., Westmacott, C. and Bulthuis, M. (2015), "The Impact of Green Space on Heat and Air Pollution in Urban Communities: A Meta-Narrative Systematic Review", David Suzuki Foundation, Vancouver, Canada.

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Published

25-06-2020

How to Cite

Almuder, M., & Suzer, O. (2020). CRITICAL ASPECTS, MOTIVATORS AND BARRIERS OF BUILDING-INTEGRATED VEGETATION. ICONARP International Journal of Architecture and Planning, 8(1), 112–133. https://doi.org/10.15320/ICONARP.2020.107

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