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{"references": ["Retrieved on April 12, 2013 from website http://www.peakbagger.com/range.aspx?rid=432", "Alexander, Christopher, \"Notes on the Synthesis of Form, 1st ed.\", Harvard University Press, 1964, pp. 1-224.", "Borucke, Michael, David Moore, Gemma Cranston, Kyle Gracey, Katsunori Iha, Joy Larson, Elias Lazarus, Juan Carlos Morales, Mathis Wackernagel, Alessandro Galli, 2012, \"Accounting for demand and supply of the biosphere's regenerative capacity: The National Footprint Accounts' underlying methodology and framework\", Ecological Indicators 24 (2013) 518\u2013533, Elsevier Ltd.", "Adams, W.M., \"The Future of Sustainability: Re-thinking Environment and Development in the Twenty-first Century\", 2006, Report of the IUCN Renowned Thinkers Meeting, 29\u201331 January 2006.", "Abdaei, Kaveh, Ahadollag Azami, \"Sustainability Analyses of Passive Cooling Systems in Iranian Traditional Buildings approaching Wind-Catchers\", Recent Advances in Energy, Environment and Development, pp.124-129.", "Afrasiabian, Shaghayegh, Mohammadjavad Mahdavinejad, Negar Badri, \"Nature as a Source of Sustainable Design in Architecture of Original Countries (Case Study: Traditional Architecture of Iran)\", Archi-Cultural Translations through the Silk Road 2nd International Conference, Mukogawa Women's Univ., Nishinomiya, Japan, July 14-16, 2012 Proceedings, pp.257-261.", "Azami.A, Y., \"Climate passive architecture in hot and dry regions of iran, Passive and low energy cooling for the built environment\", Greece: Santorini, 2005, pp. 613-617.", "Fardpour, Tohid, \"Analysis of Iranian Traditional Architecture Through the Lens of Kenneth Frampton's \"Critical Regionalism\"\", American Journal of Engineering and Applied Sciences, 2013, 6 (2): 205-210.", "Ghobadian. Vahid, \"Climate Analysis of the Traditional Iranian Buildings\", 5th ed., Tehran: University of Tehran Press, 2008.\n[10]\tKasmai, Morteza, \"Climate & Architecture\", 4nd ed., 2006, pp. 107-130.\n[11]\tKiani, W. K., \"Cultural heritage organization of Iran\", Tehran, 1995.\n[12]\tPourvahidi, Parastoo, \"Bioclimatic Analysis of Vernacular Iranian Architecture\", Master diss., Eastern Mediterranean University, Gazimagusa, North Cyprus, 2010, 1-161.\n[13]\tPourvahidi, Parastoo, Mesut B. Ozdeniz, \"Bioclimatic analysis of Iranian climate for energy conservation in architecture\", Scientific Research and Essays, 2013, Vol. 8(1), pp. 6-16.\n[14]\tShojaei, S.A.R., Zahra khodayari, \"Sustainable Architecture In Arid Regions of Iran\", 5th Symposium on Advances in Science & Technology, May 12-17, 2011.\n[15]\tUtaberta, N., N. Sharifi, M. Surat, A. I. Che-Ani and N.M. Tawil, \"The Experience of Iranian Architecture in Direction of Urban Passages and Forming of Urban Structures to Increase Climatic Comfort\", World Academy of Science, Engineering and Technology, 2012, Vol. 67, pp. 637-641.\n[16]\tRetrieved on June 2, 2013 from website http://news.discovery.com/earth/global-warming/hottest-spot-on-earth-120416.htm\n[17]\tAttmann, Osman , \"Green architecture: overview\", Green architecture: advanced technologies and materials. definitions and operationalizations of green architecture, McGraw-Hill Professional, AccessEngineering, ICC (International Code Council), 2010, pp. 1-26.\n[18]\tRetrieved on May 28, 2013 from Website http://www.skyscrapercity.com/showthread.php?t=965506\n[19]\tPirnia, Mohammad Karim, Stylistic of Iranian Architecturem, 3rd ed., 1383, pp. 32.\n[20]\tRetrieved on April 18, 2013 from website Website: http://n-a-c.blogfa.com/cat-12.aspx\n[21]\tShokouhian.M, S., \"Enviromental effect of the courtyard in sustainable architecture of Iran\", Tehran: Islamic azad university, 2007.\n[22]\tRetrieved on April 26, 2013 from website http://www.gardenhistorysociety.org/post/agenda/the-gardens-of-persia/\n[23]\tLe Corbusier \"The Modulor: A Harmonious Measure to the Human Scale, Universally Applicable to Architecture and Mechanics\". Basel & Boston: Birkh\u00e4user, (2004) (First published in two volumes in 1954 and 1958.).\n[24]\tRetrieved on May 06, 2013 from website http://ghoolabad.com/index2.asp?id=26"]} Iran Central Plateau encompasses a large proportion of this country. The weather in these flat plains is warm and arid with very little precipitation. Different attempts in architecture have been done to alleviate the weather severity of this area and create a living place compatible with humans’ comfort criteria. Investigations have showed that some of the most successful approaches in traditional architecture of the area has been forgotten or are not being used widely. As sustainability is defined as an appropriate solution for environmental, economical, and social disorders, this research is a try to demonstrate the sustainability in aforementioned architecture and based on these studies, propounds solutions for today architecture in hot arid zones.

We have attained superior quality a-SiGe:H and nc-Si:H materials deposited at high rate, ~0.6 nm/s for a-SiGe:H and 1-1.5 nm/s for nc-Si:H, and achieved improved multi-junction solar cell performance. For a-SiGe:H based cells, we have focused our effort on further improving the a-SiGe:H film quality by carefully optimizing process parameters, particularly with Ge content and profile, hydrogen dilution, deposition pressure and substrate-tocathode distance, to fabricate a-SiGe:H films with low defect density and good stability. For nc-Si:H based solar cells, we have mainly worked on improving the spatial uniformity and homogeneous properties for nc-Si:H deposition, and on optimizing the plasma process and selecting species to deposit further improved nc-Si:H. We attained 10.1% and 11.2% stabilized efficiencies, respectively, for large-area (≥400 cm2) encapsulated a-Si:H/a-SiGe:H/a-SiGe:H and a- Si:H/nc-Si:H/nc-Si:H triple-junction cells. Comparison between a-SiGe:H and nc-Si:H based technologies and future improvement will be presented. 25th European Photovoltaic Solar Energy Conference and Exhibition / 5th World Conference on Photovoltaic Energy Conversion, 6-10 September 2010, Valencia, Spain; 2783-2787

The purpose of the paper is, fi rstly, to present renewable energy sources in Poland compared with other EU countries and, secondly, to evaluate legal regulations relating to the implementation of renewable energy projects and to operation in the context of logistics management. The article also presents the defi nition and statistical data on renewable energy. Then, it focuses on legal aspects of the building process of wind farms and biogas plants. It also points out the process of organising the project, including ensuring a legal title to lands and obtaining, apart from the building permit, some other decisions. Next, the paper raises selected issues of fi nancing the projects and of a contract engineer. Finally, it refers to the stage of operating the biogas plants and to the obligations relating to the agricultural biogas.

This paper describes an ongoing development of a pilot­scale biorefinery based on three facilities for the production of second generation biofuels. The project aims at assessing the feasibility of different technologies to derive biofuels from non food crops, as well as testing non conventional feedstock for the production of biofuels on a pilot scale. The three facilities are: 1) 200 kWth Gasification facility for the production of syngas equipped both with a traditional wet syngas clean­up system and an ancillary tar cracking line; 2) an oil processing plant (nominal size 30 kg/hr) 3) a bio­ethanol production plant. The main goals are: 1) characterization of the clean­up systems and evaluation of the optimal conditions for the production of syngas, derived from gasification of lignin­cellulosic biomass, ready for combustion in an IC­engine as well as a Fischer & Tropsch synthesis reactor; 2) testing of non­edible oilseeds and exhaust oils for the production of biodiesel 3) optimization of process conditions for the production of bio­ethanol from ligno­cellulosic feedstock. Products, by­products and heat recovery can be integrated among the three facilities and also with a parallel line of biomass combustion. The feasibility of the integrated system is studied with a process model developed in AspenPlus. Proceedings of the 18th European Biomass Conference and Exhibition, 3-7 May 2010, Lyon, France, pp. 1822-1828

Recent problems about fossil fuels and environmental pollution carried to an even great interest about alternative energy sources and green-energy. Conversion of biomass in energy through biochemical and thermochemical process is one of the most promising and sustainable solution and, among thermochemical processes, pyrolysis is one of the most investigated. Different setting of parameters allow obtaining various types of pyrolysis processes, resulting in a different distribution in product yield. Before designing the simulation, Authors collected some literature data about existing biomass pyrolysis plant and products obtained through different kind of this process. Layout of simulation is based on a pilot-plant located in Caltagirone (Sicily). The simulation is developed in this paper through CHEMCAD software. The work has two aims: 1. Try to enhance percentage of bio-oil production modifying operative parameter; 2. Give a preliminary parameters and results to improve the process in a real plant. Authors show a synthesis of real pyrolysis plant showing type, steam and dimension of biomass and describing operative parameters as heating rate, residence time and maximum temperature reached during the process. Moreover, there is an overview of the entire production cycle, with a description of equipment such as type of reactor, heat exchangers and equipment of gas washing section, until obtaining of final products. Process is simulated in CHEMCAD through a K-Reactor block able to reproduce the reaction that occurs during pyrolysis. After products are discharged from the reactor, solid particles are collected in a tank whereas gas fraction carry on towards the other section of the plant to be treated. Through gas washing section and cooling process, condensable fraction is obtained and liquid phase is separated from gaseous fraction. To check reliability of results, the percentages of three products are compared with the ones collected through literature researches and there is a matching between them. Proceedings of the 26th European Biomass Conference and Exhibition, 14-17 May 2018, Copenhagen, Denmark, pp. 1131-1136