Influence of Leaf Area Index on the Heat Index of a Tropic Urban Park

α
Jonathan Willian Zangeski Novais
Jonathan Willian Zangeski Novais
σ
Danielle da Silva Batista
Danielle da Silva Batista
ρ
Renata Luisa Ferreira
Renata Luisa Ferreira
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Roberta Daniela de Souza
Roberta Daniela de Souza
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Thiago Fernandes
Thiago Fernandes
§
Carlo Ralph De Musis
Carlo Ralph De Musis
α Universidade de Cuiabá - UNIC

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Influence of Leaf Area Index on the Heat Index of a Tropic Urban Park

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Abstract

In the wake of climate change, cities need to adapt to global warming. In this context, the use of afforestation to improve the microclimate may assist in raising the quality of life for population. This objective requires research that analyzes how the variations in parameters related to canopy dynamics, such as the leaf area index (LAI) and photosynthetically active radiation (PAR) can influence thermal comfort indices. To contribute to this research, this study measured the air temperature, relative air humidity, PAR, and LAI on a monthly basis from July, 2017, to June, 2018, in an urban park in a tropical region of Brazil. Kriging maps were created for the heat index (HI), and multiple polynomial regression models were adjusted to estimate the HI using PAR and LAI data. After defining the models, positive and negative variations of LAI were tested to observe if any changes in HI occurred. The simulated results showed greater sensitivity to negative variations in LAI, in which a 50% reduction in LAI decreased the HI by 28%, particularly during the dry period.

References

59 Cites in Article
  1. L Abreu,L Labaki (2008). Avaliação da Termo-Regulação em Diferentes Espécies Arbóreas.
  2. Loyde Abreu-Harbich,Lucila Labaki,Andreas Matzarakis (2014). Thermal bioclimate in idealized urban street canyons in Campinas, Brazil.
  3. C Alvares,S Jl,P Sentelhas,Sparovek (2013). Köppen's climate classification map for Brazil.
  4. Ana Alves,Marta Nogueira,Flávia Santos,Carlo De Musis,José Nogueira (2019). IMPACTO DA MORFOLOGIA DE PARQUE URBANO NO MICROCLIMA E NO CONFORTO TÉRMICO DE CUIABÁ – BRASIL.
  5. L Andrade,M Nogueira,F Santos,J Nogueira,C Musis,J Novais,W (2019). Atmospheric Pollution and Meteorological Parameters in the City of Cuiabá-MT.
  6. Jandresson Pires (2003). Modelagem estatística híbrida multidimensional utilizando geoestatística e aprendizagem de máquina.
  7. J Ayoade (2007). Introdução à Climatologia para os Trópicos. 11ª edição.
  8. Marcelo Biudes,George Vourlitis,Nadja Machado,Paulo De Arruda,Geraldo Neves,Francisco De Almeida Lobo,Christopher Neale,José De Souza Nogueira (2015). Patterns of energy exchange for tropical ecosystems across a climate gradient in Mato Grosso, Brazil.
  9. C Bartholomei (2003). Influência da vegetação no conforto térmico urbano e no ambiente construído.
  10. P Burrough,R Mcdonnell,R Mcdonnell,C Lloyd (2015). Principles of geographical information systems.
  11. C Cambardella,T Moorman,J Novak,T Parkin,D Karlen,R Turco,A Konopka (1994). Field‐Scale Variability of Soil Properties in Central Iowa Soils.
  12. José Carvalho,Pedro Silveira,Sidney Vieira (2002). Geoestatística na determinação da variabilidade espacial de características químicas do solo sob diferentes preparos.
  13. Jorge Dafonte,Montserrat Guitián,Jorge Paz-Ferreiro,Glécio Siqueira,Eva Vázquez (2010). Mapping of soil micronutrients in an european atlantic agricultural landscape using ordinary kriging and indicator approach.
  14. Rivanildo Dallacort,Juliano Martins,Miriam Inoue,Paulo Freitas,Ademar Coletti (2011). Distribuição das chuvas no município de Tangará da Serra, médio norte do Estado de Mato Grosso, Brasil.
  15. Carolina Maciel,Marta Nogueira,José Nogueira (2011). COBERTURA DO SOLO E SUA INFLUÊNCIA NA TEMPERATURA DE MICROCLIMAS URBANOS NA CIDADE DE CUIABÁ-MT.
  16. Vanessa Dias,Marcelo Alves,Luciana Sanches (2015). MÉTODOS DE AJUSTE DE SEMIVARIOGRAMAS A PARA MODELAGEM ESPACIAL DE ÍONS DE PRECIPITAÇÃO PLUVIAL EM CUIABÁ, BRASIL.
  17. N Draper,H Smith (1998). Análise de regressão aplicada.
  18. Mohamad Fahmy,Stephen Sharples,Mahmoud Yahiya (2010). LAI based trees selection for mid latitude urban developments: A microclimatic study in Cairo, Egypt.
  19. L Ferreira,S Carrilho,P Mendes (2015). Áreas verdes urbanas: uma contribuição aos estudos das ilhas de frescor.
  20. Mauro França,Silvana França,Marta Nogueira,José Nogueira (2016). ESTIMATIVA DO CONFORTO TÉRMICO NA CIDADE DE CUIABÁ / MT.
  21. Mauro França (2018). ESTIMATIVA DE ÍNDICES DE CONFORTO TÉRMICO POR MEIO DO USO DE TRANSECTO MÓVEL EM SORRISO/MT.
  22. C Grimmond,Martin Best,Janet Barlow,A Arnfield,J-J Baik,A Baklanov,S Belcher,M Bruse,I Calmet,F Chen,P Clark,A Dandou,E Erell,K Fortuniak,R Hamdi,M Kanda,T Kawai,H Kondo,S Krayenhoff,S Lee,S-B Limor,A Martilli,V Masson,S Miao,G Mills,R Moriwaki,K Oleson,A Porson,U Sievers,M Tombrou,J Voogt,T Williamson (2009). Urban Surface Energy Balance Models: Model Characteristics and Methodology for a Comparison Study.
  23. C Grimmond,T Oke (1991). An evapotranspiration‐interception model for urban areas.
  24. William Hoffmann,Edson Da Silva,Gustavo Machado,Sandra Bucci,Fabian Scholz,Guillermo Goldstein,Frederick Meinzer (2005). Seasonal leaf dynamics across a tree density gradient in a Brazilian savanna.
  25. William Herb,Ben Janke,Omid Mohseni,Heinz Stefan (2008). Ground surface temperature simulation for different land covers.
  26. J Junior,A Costa,J Pezzuti,R Costa,D Galbraith (2012). Análise da distribuição espacial do conforto térmico da cidade de Belém, PA no período menos chuvoso.
  27. E Krayenhoff,A Christen,A Martilli,T Oke (2014). A Multi-layer Radiation Model for Urban Neighbourhoods with Trees.
  28. N Machado,L Sanches,L Silva,J Novais,A Aquino,M Biudes,. Nogueira,J (2015). SOIL NUTRIENTS AND VEGETATION STRUCTURE IN A NEOTROPICAL SEASONAL WETLAND.
  29. Ana Malhado,Marcos Costa,Francisca De Lima,Kleber Portilho,Daniel Figueiredo (2009). Seasonal leaf dynamics in an Amazonian tropical forest.
  30. B Marimon,E De S. Lima,T Duarte,L Chieregatto,J Ratter (2006). OBSERVATIONS ON THE VEGETATION OF NORTHEASTERN MATO GROSSO, BRAZIL. IV. AN ANALYSIS OF THE CERRADO–AMAZONIAN FOREST ECOTONE.
  31. Eliandra Melz,Patricia Tiago (2009). Propriedades físico-químicas e microbiológicas do solo de um Parque em Tangará da Serra, MT, uma área de transição entre Amazônia e Cerrado.
  32. Ariane Middel,Kathrin Häb,Anthony Brazel,Chris Martin,Subhrajit Guhathakurta (2014). Impact of urban form and design on mid-afternoon microclimate in Phoenix Local Climate Zones.
  33. Leonardo Monteiro,M Alucci (2008). Avaliação empírico-preditiva em espaços urbanos: correlações entre sensação térmica e sonora.
  34. Tobi Morakinyo,Ling Kong,Kevin Ka-Lun Lau,Chao Yuan,Edward Ng (2017). A study on the impact of shadow-cast and tree species on in-canyon and neighborhood's thermal comfort.
  35. Marco Napoli,Luciano Massetti,Giada Brandani,Martina Petralli,Simone Orlandini (2016). Modeling Tree Shade Effect on Urban Ground Surface Temperature.
  36. Nancy Stone,Guirong Yan,Fiona Fui-Hoon Nah,Chaman Sabharwal,Kelsey Angle,Fred Hatch,Steve Runnels,Vankita Brown,Gregory Schoor,Christopher Engelbrecht (2009). Virtual Reality for Hazard Mitigation and Community Resilience: An Interdisciplinary Collaboration with Community Engagement to Enhance Risk Awareness.
  37. R Nóbrega,T Verçosa (2011). O microclima e o (des) conforto térmico em ambientes abertos na cidade do recife.
  38. Jonathan Novais,Luciana Sanches,Ludymilla Silva,Nadja Machado,Aryadne Aquino,Osvaldo Pinto Junior (2016). Albedo do Solo abaixo do Dossel em Área de Vochysia divergens Pohl no Norte do Pantanal.
  39. Jonathan Novais,Luciana Sanches,Vanessa Dias,Nadja Machado,Ludymilla Silva,Aryadne Aquino (2018). VARIAÇÃO ESPAÇO-TEMPORAL DA PAR REFLETIDA PELO SOLO E TRANSMITIDA PELO DOSSEL EM FLORESTA INUNDÁVEL NO PANTANAL MATO-GROSSENSE.
  40. T Oke (1982). The energetic basis of the urban heat island.
  41. Shushi Peng,Shilong Piao,Philippe Ciais,Pierre Friedlingstein,Catherine Ottle,François-Marie Bréon,Huijuan Nan,Liming Zhou,Ranga Myneni (2012). Surface Urban Heat Island Across 419 Global Big Cities.
  42. Susana Pereira,Jonathan Novais,Osvaldo Pinto Júnior,Carlo Musis,Levi Andrade,Thiago Joaquim,Maria Pierangeli (2018). Dinâmica temporal do efluxo de CO2 em fragmento de cerrado Mato-Grossense.
  43. Martina Petralli,Luciano Massetti,Giada Brandani,Simone Orlandini (2014). Urban planning indicators: useful tools to measure the effect of urbanization and vegetation on summer air temperatures.
  44. Gislene Porangaba,Margarete Amorim (2017). Análise de ilhas de calor diagnosticas por meio de transectos móveis em Assis, Cândido Mota, Maracaí e Tarumã (SP).
  45. Zhibin Ren,Xingyuan He,Haifeng Zheng,Dan Zhang,Xingyang Yu,Guoqiang Shen,Ruichao Guo (2013). Estimation of the Relationship between Urban Park Characteristics and Park Cool Island Intensity by Remote Sensing Data and Field Measurement.
  46. D Richards,T Fung,R Belcher,P Edwards (2020). Differential air temperature cooling performance of urban vegetation types in the tropics.
  47. Rodriguez-Avial Llardent,L (1982). Zonas verdes y espacios libres en la ciudad.
  48. P Rodrigues,I Gomes,M Simon,J Nunes,R Añez (2015). Anais do(a) XII Simpósio de Estudos e Pesquisa em Ciências Ambientais na Amazônia.
  49. L Sanches,N De Andrade,J De Souza Nogueira,M Biudes,G Vourlitis (2008). Índice de área foliar em floresta de transição amazonia cerrado em diferentes médotos de estimativa.
  50. Mônica Senna,Marcos Costa,Yosio Shimabukuro (2005). Fraction of photosynthetically active radiation absorbed by Amazon tropical forest: A comparison of field measurements, modeling, and remote sensing.
  51. Stefanía Silva,Nereu Streck (2014). Tendências das séries históricas do índice de calor no município de Santa Maria - RS.
  52. R Souza,J Novais,M Pierangeli,M Lanssanova,T Fernandes,V Hoki,P Souza (2020). Urban microclimate in vegetated and non-vegetated areas in rainy and sunny conditions.
  53. J Spolador,L Sanches,M Costa (2006). Radiação fotossinteticamente ativa em uma floresta de transição Cerrado-Amazônica.
  54. R Steadman (1979). The assessment of sultriness. Part I: A temperature-humidity index based on human physiology and clothing science.
  55. R Steadman (1979). The Assessment of Sultriness. Part II: Effects of Wind, Extra Radiation and Barometric Pressure on Apparent Temperature.
  56. Chen-Yi Sun (2011). A street thermal environment study in summer by the mobile transect technique.
  57. M Varejão-Silva (2006). Meteorologia e climatologia: versão digital 2.
  58. Laura Vasconcelos,Cleusa Zamparoni (2011). OS EFEITOS DA URBANIZAÇÃO NO MICROCLIMA NO BAIRRO MORADA DA SERRA, CUIABÁ – MT.
  59. Luciana Munhoz,Plauto Watanabe,Yeda Silva (2013). Inovação em saúde: telessaúde e teleodontologia: conceitos e aplicações.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Jonathan Willian Zangeski Novais. 2021. \u201cInfluence of Leaf Area Index on the Heat Index of a Tropic Urban Park\u201d. Global Journal of Human-Social Science - B: Geography, Environmental Science & Disaster Management GJHSS-B Volume 21 (GJHSS Volume 21 Issue B3): .

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Greater Leash Laws and their effects on tropical habitats. Research on animal control, safety, and environmental impact.
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GJHSS Volume 21 Issue B3
Pg. 51- 62
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Crossref Journal DOI 10.17406/GJHSS

Print ISSN 0975-587X

e-ISSN 2249-460X

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v1.2

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October 8, 2021

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In the wake of climate change, cities need to adapt to global warming. In this context, the use of afforestation to improve the microclimate may assist in raising the quality of life for population. This objective requires research that analyzes how the variations in parameters related to canopy dynamics, such as the leaf area index (LAI) and photosynthetically active radiation (PAR) can influence thermal comfort indices. To contribute to this research, this study measured the air temperature, relative air humidity, PAR, and LAI on a monthly basis from July, 2017, to June, 2018, in an urban park in a tropical region of Brazil. Kriging maps were created for the heat index (HI), and multiple polynomial regression models were adjusted to estimate the HI using PAR and LAI data. After defining the models, positive and negative variations of LAI were tested to observe if any changes in HI occurred. The simulated results showed greater sensitivity to negative variations in LAI, in which a 50% reduction in LAI decreased the HI by 28%, particularly during the dry period.

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Influence of Leaf Area Index on the Heat Index of a Tropic Urban Park

Jonathan Willian Zangeski Novais
Jonathan Willian Zangeski Novais
Danielle da Silva Batista
Danielle da Silva Batista
Renata Luisa Ferreira
Renata Luisa Ferreira
Roberta Daniela de Souza
Roberta Daniela de Souza
Thiago Fernandes
Thiago Fernandes
Carlo Ralph De Musis
Carlo Ralph De Musis

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