تحلیل الگوی فضایی مسکن روستایی مناطق خشک با شرایط اقلیمی (مطالعۀ موردی: استان سیستان و بلوچستان)

نوع مقاله : مقاله پژوهشی

نویسندگان

1 دانشیار آب و هواشناسی، دانشگاه بیرجند، بیرجند، ایران

2 استادیار آب و هواشناسی، دانشگاه شهید باهنر کرمان، کرمان، ایران

چکیده

با توجه به تنوع اقلیمی در استان سیستان و بلوچستان، تنوع مسکن ناشی از آن از ویژگی های این استان می باشد. این تنوع اقلیمی باعث شده تا مسکن سنتی از تنوع شکلی و ساختاری برخوردار باشد. با بررسی وضعیت سازگاری مسکن بومی با عناصر آب و هوایی مشخص شد مسکن بومی شهرستان سرباز بیشترین سازگاری را با اقلیم دارد. ایستگاههای سراوان، ایرانشهر، نیکشهر، زاهدان و زابل دارای سازگاری متوسطی هستند و در شهرستان­های چابهار و منطقه بمپور حداقل سازگاری بین مسکن بومی و اقلیم وجود دارد. همچنین با بررسی الگوی فضایی مسکن روستایی در سطح استان مشخص شد، شهرستان­های نیک شهر،سراوان، خاش و زاهدان از لحاظ الگوی فضایی مسکن بومی  همسان می باشند. این مناطق دارای الگوی توزیع خوشه­ای هستند. مسکن بومی ایرانشهر با ضریب خودهمبستگی 714/0- بیشترین هماهنگی (خوشه­ای) را با بقیه نواحی استان داشته است. شهرستان­های ایرانشهر و زابل با داشتن ضریب خودهمبستگی منفی نزدیک به صفر کمترین همپوشانی الگوی فضایی مسکن بومی را با بقیه نقاط استان دارا بوده و به عنوان الگوی تصادفی از نظر توزیع مکانی محسوب می­گردد. بنابراین بیشترین سازگاری مسکن با در سرباز،نیکشهر، زابل قرار گرفته است.

کلیدواژه‌ها


عنوان مقاله [English]

Assessment of the adaptation of rural housing to the climatic conditions in arid areas: A case study of Sistan and Baluchestan Province

نویسندگان [English]

  • orteza Esmaelnejad 1
  • Sadegh Karimi 2
1 M Associate Professor, Department of Geography, University of Birjand
2 Assistant Professor, Shahid Bahonar, University of Kerman
چکیده [English]

Due to the climatic diversity in Sistan and Baluchestan Province, housing diversity is one of the characteristics of this province. The southern part of the province, at least in a part of the year, has tropical climate features; the area experiences extreme heat and high relative humidity. At the same time, the northern parts of the province are affected by the climatic elements of tropical regions, where the climate is hot and dry. The diversity in housing caused by the climatic diversity of the region is one of the characteristics of this part of the country. Taftan mountainous regions of Bazman, hot and dry central regions, hot and humid southern regions, and the general position of the province have made the climate diversified. This has given the traditional houses there structural variety. The investigation of the adaptation or incompatibility of indigenous habitats with climatic features indicated that the local houses in the city of Sarbaz have the highest adaptability to the climate. Those in Saravan, Iranshahr, Nikshahr, Zahedan and Zabul have moderate adaptation. In Chabahar and Bampur, a minimum compatibility exists between the local houses and the climate. Also, the study of the spatial relationships in the province showed spatial similarities among Nikshahr, Saravan, Khash and Zahedan in terms of housing characteristics. These areas have a cluster distribution pattern. The buildings in Iranshahr with the autocorrelation coefficient of -0.714 have the highest coordination with the rest of the province. The cities of Iranshahr and Zabol have the least spatial relationship with the rest of the province with a negative correlation coefficient close to zero. It is considered as a random pattern in terms of spatial distribution. Therefore, the most adapted houses are located in Sarbaz, Nikshahr, Zabol.

کلیدواژه‌ها [English]

  • Native housing
  • Sistan and Baluchestan Province
  • Spatial relationship
  • Climate transition
  • Autocorrelation
  1. Abdolhosseini, J. (2011). Adaptation of Tabriz and Baku Residential Designs with Native Culture and Climates, Bagh Nazar Scientific and Research Quarterly, 8(18) 24-13.
  2. Abimaje, J., and Akingbohungb, D. (2013) Housing and Climate Change in the Nigerian Built Environment, Journal of Environment and Earth Science, Vol. 3, No.4, 2013
  3. Akhavan, H., Bamiyan, M. R., and Ansari, M. (2011). Recognizing the Spiritual Concept of “Residence” in Traditional Desert Climate Housing, Studies in Islamic Iranian City, 2(5), 102-95.
  4. Alpagnonulu, A. (1987). Folk Architecture, Translated by Ali Mohammad Sadat Afsari, Tehran: Italian Cultural Association.
  5. Anbaleh, M. (1996). Baluchi Traditional Housing, Geographical Research Quarterly, No. 43.
  6. Bagheri, A. (2005). Housing and Spirituality, Urban and Architecture Information Center, Tehran
  7. Barati, Gh. (2001). Understanding the synergistic effects between climatic features and religious orders in ancient arid architectural styles of Iran.
  8. Bawrani, N. (2003). Climate-Resident Rural Settlements, Housing and Revolution Quarterly, No. 101.
  9. Christenson, M., Gyalistras, D. (2012). Climate warming impact on Degree - Days and Building Energy Demand in Switzerland, Energy Conversion and Management, 47(6), 671- 686.
  10. Dalman, Massoud (1993). The Role of the Climate in the South Coast, Master's Degree in Natural Geography, University of Isfahan.
  11. Dehghan, M. (2003). Ecological Dimensions of Traditional Housing in Hot and Dry Lands of Iran, Housing and Revolution Quarterly, No. 102.
  12. Delalpour, M. R. (2000). Housing Planning, Tehran: Toos Press.
  13. Dinpajuh, Y. (2003). Iranian Climatic Zoning Using Multivariate Analysis for Use in Agricultural Studies, Journal of Agricultural Knowledge, 13 (1), 71-90.
  14. Einefar, A.R. (2003). A Model for Flexibility Analysis in Traditional Iranian Housing, Journal of Fine Arts, 13, 77-64.
  15. Ghobadian, V. (2015) Shape of Sustainable Houses in Iran: A Climatic Analysis, European Online Journal of Natural and Social Sciences, 3 (3) Special Issue on New Trends in Architecture, Civil Engineering, and Urban Studies.
  16.  Housing Foundation of the Islamic Revolution. (2000). Settlements and Types of Rural Housing, Zahedan
  17. Kalifeh, N. (2003). Climate-Adjusted Rural Settlements in Highland and Highlands, Housing and Revolution Journal, No. 101.
  18. Khaledi, S. (1995). Applied Meteorology, Toos Publications.
  19. Kosma, M. (2013). Climate and Architecture, Fifth Edition, Isfahan: Soil Publishing, 306 p.
  20. Lee, D. W. (2002). Statistical Analysis with ArcView GIS, Translated by Mohammad Reza Hosseininejad and Fereidoun Ghadimi Bride of Mahala, Tehran University of Science and Technology Publications, Tehran, 274 p.
  21. Meteorological Organization of Sistan and Baluchestan Province (1396).
  22. Monte, P., (2003). Middle East. Translated by Mohsen Moder Shanehchi, Mashhad: Astan Qods Razavi Publications.
  23. Naderi, Ahmad Ali (2007). The Role of Vital Climate in Kerman Province Architecture with Special Attitude toward Kerman City, MA Thesis in Natural Geography, University of Isfahan.
  24. Naqizadeh, Mohammad (2002). Cultural Foundations of Iranian Sustainable Architecture, Journal of the Specialty of the Islamic Revolution Foundation, No. 100.
  25. Oktaya, D.(2002)  Design with the climate in housing environments: An analysis in Northern Cyprus, Building and Environment 37(10):1003-1012.
  26. Omkchi, Hamid (2001). The Role of Land Market Developments in the Demolition Process of Residential Buildings, East Tehran Sample, Housing Economics Quarterly, No. 20, pp. 20-1.
  27. Rafi, Mojtaba; (2003). Housing Investment in Different Regions of the Country Inequalities and Solutions, Journal of Housing and Revolution, No. 34.
  28. Rashidi Sharifabad, S, (2011). Concepts of Climatic Sustainability of Traditional Residential Buildings Warm and Dry Climates; National Conference on Contemporary Architecture and Urban Development of Iran, Tehran.
  29. Saliqeh, Mohammad (2001) the Impact of Pakistan's Low Pressure Climate on the South-East of Iran, Research Project, Research Deputy, University of Sistan and Baluchistan.
  30. Saliqeh, Mohammad (2003) Attention to the Physical Framework of the City of Geography and Development, Volume 2, Issue 2.
  31. Saliqeh, Mohammad (2003). Modeling climate-friendly housing for the cities of Chabahar and Zahedan, Vice Chancellor for Research, Sistan and Baluchestan University.
  32. Saliqeh, Mohammad (2004) Modeling a Minimization of Housing for the City of Chabahar, Geography and Development, Volume 2, Issue 4.
  33. Sozen, Gu., Gedı, K., (2007). Evaluation of traditional architecture in terms of building physics: old Diyarbakı´r houses, Building and Environment 42, pp.1810–1816.
  34. Tabasi, Mohsen (2005). Introducing and Investigating the Rural Housing Properties of Sistan and Baluchestan, Housing and Revolution Quarterly, No. 110.
  35. WMO. (2016) International Meteorological Vocabulary, WMO, No. 182, TP 91, 1991, 116p.
  36. Yilmaz, M. and Keleş Ekistics, R(2004)  Sustainable housing design and the natural environment, Vol. 71, No. 427/428/429, The Natural City ,pp. 236-243.