Relevant bibliographies by topics / Passive Solar Landscape Design

Contents

  1. Journal articles
  2. Dissertations / Theses
  3. Books
  4. Book chapters
  5. Conference papers
  6. Reports

Academic literature on the topic 'Passive Solar Landscape Design'

Author: Grafiati
Published: 4 June 2021
Last updated: 11 February 2022

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Journal articles on the topic "Passive Solar Landscape Design"

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Chen, Cheng, Rong Wen Du, and Hao Zhang. "The Analysis of Passive Design in Zero-Energy Buildings: A Case Study of Solar Decathlon." Advanced Materials Research 689 (May 2013): 119–24. http://dx.doi.org/10.4028/www.scientific.net/amr.689.119.

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In order to promote the development of the zero-energy buildings, the U.S. Department of Energy Solar Decathlon is held biennially, in which every team is required to design, build and operate an energy-efficient house powered by the sun. This paper is focused on the innovative passive design in the Solar Decathlon 2011 in following five categories: the indoor and outdoor space, the envelop, the ecological system as well as the shading structure. Based on the case studies, it is suggested that the solar house is emphasizing more flexible living space, the multifunctional envelop and the ecological landscape.
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Mabdeh, Shouib, Tamer Al Radaideh, and Montaser Hiyari. "ENHANCING THERMAL COMFORT OF RESIDENTIAL BUILDINGS THROUGH DUAL FUNCTIONAL PASSIVE SYSTEM (SOLAR-WALL)." Journal of Green Building 16, no. 1 (January 1, 2021): 139–61. http://dx.doi.org/10.3992/jgb.16.1.139.

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ABSTRACT Thermal comfort has a great effect on occupants’ productivity and general well-being. Since people spend 80–90% of their time indoors, developing the tools and methods that help in enhancing the thermal comfort for buildings are worth investigating. Previous studies have proved that using passive systems like Trombe walls and solar chimneys significantly enhanced thermal comfort in inside spaces despite that each system has a specific purpose within a specific climate condition. Hence, the main purpose of this study is to design and configure a new dual functional passive system, called a solar wall. The new system combines the Trombe wall and solar chimney, and it can cool or heat based on building needs. Simulation software, DesignBuilder, has been used to configure the Solar Wall and study its impact on indoor operative temperature for the base case. Using the new system, the simulation results were compared with those obtained in the base case and analyzed to determine the most efficient system design parameters and implementation method. The case that gave the best results for solar wall configuration was triple glazed glass and 0.1 cm copper as an absorber (case 11). The results show that using four units (case D) achieves longer thermal comfort levels: 15 to 24 thermal hours during winter (compared to five hours maximum) and 10 to 19 comfort hours in summer (compared to zero).
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Mabdeh, Shouib, Tamer Al Radaideh, and Montaser Hiyari. "ENHANCING THERMAL COMFORT OF RESIDENTIAL BUILDINGS THROUGH A DUAL FUNCTIONAL PASSIVE SYSTEM (SOLAR-WALL)." Journal of Green Building 16, no. 3 (June 1, 2021): 155–77. http://dx.doi.org/10.3992/jgb.16.3.155.

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ABSTRACT Thermal comfort has a great impact on occupants’ productivity and general well-being. Since people spend 80–90% of their time indoors, developing the tools and methods that enhance the thermal comfort for building are worth investigating. Previous studies have proved that using passive systems like Trombe walls and solar chimneys significantly enhanced thermal comfort in inside spaces despite that each system has a specific purpose within a specific climate condition. Hence, the main purpose of this study is to design and configure a new, dual functional passive system, called a solar wall. The new system combines the Trombe wall and solar chimney, and it can cool or heat based on building needs. Simulation software, DesignBuilder, has been used to configure the Solar Wall, and study its impact on indoor operative temperature for the base case. Using the new system, the simulation results were compared with those obtained in the base case and analyzed to determine the most efficient system design parameters and implementation method. The case that gave the best results for solar wall configuration was triple glazed glass and 0.1 cm copper as an absorber (case 11). The results show that using four units (case D) achieves longer thermal comfort levels: 15 to 24 thermal hours during winter (compared to five hours maximum) and 10 to 19 comfort hours in summer (compared to zero).
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El Azhary, Karima, Mohamed Ouakarrouch, Najma Laaroussi, and Mohammed Garoum. "Energy Efficiency of a Vernacular Building Design and Materials in Hot Arid Climate: Experimental and Numerical Approach." International Journal of Renewable Energy Development 10, no. 3 (February 10, 2021): 481–94. http://dx.doi.org/10.14710/ijred.2021.35310.

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Morocco faces tremendous climate constraints; the climate is hot and dry in most parts of the country, and when selecting an energy-saving approach, the architectural landscape becomes essential.Designer and building professionals seem to have neglected this large-scale integration. Sustainable development programs in terms of sustainable architecture are ongoing in countries around the world. One part of this trend is the growing concern shown in the high environmental efficiency of vernacular architecture. It is within this prescriptive framework that this research study is being conducted, which reveals novel architectural style integrating thermal comfort, energy efficient characteristics, passive solar elements architecture, and construction techniques inspired from the vernacular Ksourian architectural configurations. The goal of the present research study is to identify features of energy efficient vernacular architecture and thermal performances that affect indoor thermal comfort conditions for adaptation to current lifestyles in modern architecture. The key characteristics developed are; built mass structure, building orientation, space planning, availability of s, building techniques, and new coating materials for manufacturing and roofing. The suggested methodology enables to analyze the thermal performance analysis, applying an experimental research using experimental testing measurement and comparative optimization processes for thermal efficiency and comfort evaluation of a traditional vernacular earthen house.Series of experimental thermophysical characterization measurements have been carried out in order to quantify on a real scale the thermophysical properties that characterize the Rissani earth. Thusthermophysical characterization results are operated as input data for the thermal dynamic simulation for the purpose to evaluate thermal performances and comfort under the weather conditions and control natural comfort in both summer and winter, without using heating or cooling systems. Ultimately, the simulations carried out make it possible to identify the optimal orientation, revealing an effective decrease in interior temperatures during summer and providing good thermal comfort in winter.
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Dell’Acqua, Edoarda Corradi, Jaime Marin, and Eric Wright. "INTEGRATED ARCHITECTURAL AND ENGINEERING DESIGN STRATEGIES FOR A ZERO-ENERGY BUILDING: ILLINOIS INSTITUTE OF TECHNOLOGY’S DESIGN ENTRY FOR THE 2018 U.S. DEPARTMENT OF ENERGY RACE TO ZERO (SOLAR DECATHLON DESIGN CHALLENGE)." Journal of Green Building 16, no. 2 (March 1, 2021): 251–70. http://dx.doi.org/10.3992/jgb.16.2.251.

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ABSTRACT This paper describes the design of InterTech, a zero-energy mixed-use student residence hall, developed in 2018 by an interdisciplinary team of Illinois Institute of Technology (Illinois Tech) students for the U.S. Department of Energy Solar Decathlon Design Challenge, formerly known as Race to Zero. The main focus is the team’s integrated and iterative approach, which blended architectural design and engineering concepts and led to achieving the high-performance goal. InterTech aims to provide an innovative housing solution to Illinois Institute of Technology’s graduate students and their families. Located along State Street in between Illinois Tech’s main campus and downtown Chicago, it offers a mix of living options providing both independence and access to the campus and to the city. In addition to the residential program, the project includes a small grocery/cafe connected to an outdoor public plaza, and an underground garage. Energy modeling was introduced in the early design stages. The potential of on-site renewable energy generation defined the project’s target Energy Use Intensity (EUI) of 37 kBtu/sqft. Several passive and active strategies were implemented to reduce the building’s total energy needs and meet the target EUI. The implementation of energy conservation measures led to a 25% reduction of the building’s cooling load and a 33% reduction of the heating load. A design EUI of 28 kBtu/sqft was calculated, validating that this design met and exceeded the zero-energy goal.
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Seyed Salehi, Seyed Shahabaldin, Andrea Ferrantelli, Hans Kristjan Aljas, Jarek Kurnitski, and Martin Thalfeldt. "Impact of internal heat gain profiles on the design cooling capacity of landscaped offices." E3S Web of Conferences 246 (2021): 07003. http://dx.doi.org/10.1051/e3sconf/202124607003.

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Using passive methods in façade design for controlling heating and cooling needs is an important prerequisite for constructing cost-effective nearly zero-energy buildings. Optimal control of solar heat gains reduces the cooling demand and the size of the active cooling systems. However, applying such methods increases the impact of internal heat gains on the heat balance of the buildings, and accordingly also the dimensions of cooling systems. Therefore, a good model of internal heat gains is needed for a reliable and optimal sizing of the cooling sources. This paper aims to bring understanding to developing internal heat gains models for sizing the cooling systems. For this purpose, several weekly internal heat gain profiles were selected from a large set of tenant-based electricity use measured in 4 office buildings in Tallinn. The selection was based on maximum daily or weekly peak loads of an office space per floor area. The selected profiles and the schedule of EN 16798-1 were used to dimension ideal coolers in the zones of a generic floor model with landscaped offices developed in IDA-ICE 4.8. The model had variable window sizes and thermal mass of the building materials. Finally, the internal heat gains models resulting in the largest cooling capacity were identified. We found that utilizing thermal mass can reduce the cooling system size by up to 7% on average and the models with big windows and light structure need the largest cooling systems. The cooling loads obtained with the profile of EN 16798-1 did not significantly differ from the average of other profiles’ results. This paper focused mainly on the zonal dimensioning of cooling systems, therefore a more in-depth analysis of the different occupancy patterns as well as developing models for dimensioning the cooling system at the building level, is needed.
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Hastings, S. Robert. "Myths in passive solar design." Solar Energy 55, no. 6 (December 1995): 445–51. http://dx.doi.org/10.1016/0038-092x(95)00075-3.

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Hasting, S. R. "Myths in passive solar design." Fuel and Energy Abstracts 37, no. 3 (May 1996): 200. http://dx.doi.org/10.1016/0140-6701(96)88788-1.

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McVeigh, J. C. "Solar passive building: Science and design." Solar & Wind Technology 4, no. 4 (January 1987): 525. http://dx.doi.org/10.1016/0741-983x(87)90033-6.

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Voogd, H., B. J. Brinkworth, D. Valler, S. Seymour, T. Maver, J. Alden, and P. Terpstra. "Reviews: The Right Place: Shared Responsibility and the Location of Public Facilities, Passive Solar Buildings, British Urban Policy and the Urban Development Corporations, the Palladian Landscape, Computers in Architecture: Tools for Design, Tourist Organizations, European Urban Land and Property Markets 1. Urban Land and Property Markets in the Netherlands." Environment and Planning B: Planning and Design 21, no. 2 (April 1994): 247–56. http://dx.doi.org/10.1068/b210247.

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Dissertations / Theses on the topic "Passive Solar Landscape Design"

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Boelt, Robin Wiatt. "Passive Solar Landscape Design: Its Impact on Fossil Fuel Consumption Through Landscape Design." Thesis, Virginia Tech, 2006. http://hdl.handle.net/10919/32146.

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Gas, electricity, heating and cooling buildings - comfort â our lives revolve around fossil fuels. Technology and the demands of living in todayâ s society add to our gigantic fossil fuel appetite. With gas prices topping three dollars per gallon, changes must be made. This thesis project presents an analysis of passive solar landscape design (PSLD) principles used to create microclimates within the landscape, and thereby increasing human comfort both indoors and outdoors. The analysis includes case study results of fossil fuel consumption and PSLD implementation. Microclimatic comfort is revealed in the design of a solar park in historic Smithfield, Virginia. Smithfield Solar Park is designed with PSLD principles to be self-sustaining - the Farmerâ s Market pavilions and educational center generating their own electricity through a solar voltaic system. This system is enhanced by careful siting and selection of trees, shrubs and built structures and use of local materials to reduce transportation distances. Smithfield Solar Park features a Farmerâ s Market, outdoor movies and Friday Cheers, and will host regional and local festivals and events, enhancing tourism and the economy of Smithfieldâ s Historic District. Landscape architecture stands in prime position to improve landscapes and lessen both our dependency on and consumption of fossil fuels through implementation of PSLD principles. Public education about the benefits of implementing PSLD principles can have local, regional, national and global effects on our fuel consumption.
Master of Landscape Architecture
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Spitnale, Brian Douglas. "Enhanced Passive Solar Design: Studies in Solar Design and Human Health." Thesis, Virginia Tech, 2020. http://hdl.handle.net/10919/99409.

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Passive solar strategies have been present in architectural design for a long time. Basic concepts such as south facing openings to capture winter sunlight had been understood since ancient times and came about as a necessity to heat and cool a building with modern day mechanical systems. Over time, architects began to recognize the importance of sunlight and fresh air as primary concerns of design. Much of this understanding began to take place through practices originally implemented as a means for aiding in human recovery from disease. Sanatoriums began to emerge in the early 1900's, providing groundbreaking design strategies that incorporated natural sunlight and exposure to fresh air as means for recovery. At the time, these design strategies were not fully recognized for their ability to aid in a building's energy usage but were primarily focused on human health. These early projects still functioned exceptionally well for their time and many still function today. Unfortunately, while these projects were starting to break ground in solar design practices, the invention of forced air heating and cooling was starting to work its way into buildings. Petrochemical heating and cooling quickly became the standard for how buildings would operate. Over time, the primary focus of design began to stray away from traditional methods of passive design in favor of the simpler implementation of mechanical HVAC systems. Over the past decade, there has been a shift in architectural design with a much stronger focus on sustainability. As research is being done into climate change and the negative affects it has had on our planet, architects have come to understand how important the role of the building plays in the world ecosystem. Buildings account for roughly 40% of human energy consumption, with the major share of this energy use being focused on heating and cooling. Passive designs are so important because they can begin to cut into this energy usage, and in some case even reduce it entirely through net zero projects. The architect has near complete control over the passive design of a building because the passive solar strategies are inherently "built in" to the building through its site orientation, formal strategies, and shading. It is the responsibility of the architect to consider these factors. It is important, however, that passive strategies do not overlook human health and productivity. Human sensitivity to thermal and lighting conditions is equally as important as the building's energy performance. Humans are very sensitive to light conditions, an idea expressed early on in the sanatorium movement. Access to natural light aids in human health, benefiting a multitude of anatomical systems. It also aids in mental health, aiding in creativity, emotional well-being, and focus. The lighting conditions of a building affect our natural circadian rhythm on a daily basis. Combining ideas of passive solar design in terms of energy use and human health, this thesis hopes to create ideal conditions for the building and its inhabitants by optimizing building and human performance.
Master of Architecture
Passive design strategies are those that are inherent to the design of the building. Window shades, building orientation, materialliity, are just some of the examples of factors that go into passive design. Passive design is where architects can have the greatest control, simply due to the fact the design of the building is performative in itself. These strategies use the sun to aid with natural heating, cooling, and lighting, which is a much more sustainable practice than traditional mechanical systems. Passive design has been used dating back to ancient times. Greek towns were typically planned with large courtyards oreinted to the south to capture sunlight. Ancient adobes were carved into the side of south facing cliffs to capture the warmth of the sun. This thesis expands upon these traditional strategies with the use of modern knowledge and technologies. This thesis takes concepts of passive solar design a step further by introducing concepts that can promote human health and productivity. Humans have evolved to live in cooperation with the sun. We have natural rhythms that allow our bodies and minds to be in tune with the rising and setting sun. In addition to natural cycles over the course of the day, we are uniquely in tune with qualities of light. We interpret light as intensity and temperature, both which combine to produce a "quality" to the light. These different qualities are better suited for different activity, whether that be relaxing, focused work, or gathering. With a passive design project that is focused so heavily on the sun, it was important to consider how this would affect the inhabitants of the building. By combining sustainable passive design strategies with concepts surround human health and productivity, this project outlines a method for design that can inspire public works to pay attention to detail when planning spaces. Through careful consideration of site specific climate data and its connection to not only building performance but human well-being, this thesis project provides a new form of thinking for solar design.
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Shorey, Thomas Paul Jr. "Parametric Performance-driven Passive Solar Designed Facade Systems." DigitalCommons@CalPoly, 2015. https://digitalcommons.calpoly.edu/theses/1408.

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Buildings in the United States account for nearly 68% of all U.S. energy consumption due to their reliance on electrical lighting and mechanical systems. Beginning in the 20th century, emphasis on developing the glass curtain wall created increased energy demands on lighting and mechanical systems. Consequently, the building’s curtain wall is a direct cause of significant energy loads. This research project investigated how current parametric design tools and energy analysis software are used during a performance-driven passive solar design process to develop facade systems that lower the energy use intensity (EUI) of a building and increase natural daylight to an acceptable illuminance level (lux). Passive solar shading strategies were employed to realize the proposed design process through a proof of concept project that retrofits the facade of an outdated office building in a hot-mediterranean climate. Incremental steps were taken using parametric software (Revit Architecture 2015) to increase the passive solar and daylighting performance capabilities of the facade system and Autodesk Green Building Studio was employed to measure, compare and contrast the results of each design.
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CHALFOUN, NADER. "A PASSIVE SOLAR DESIGN METHODOLOGY FOR HOUSING IN EGYPT." Thesis, The University of Arizona, 1985. http://hdl.handle.net/10150/555218.

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Lotz, Steven E. "Developing a comprehensive software environment for passive solar design." Thesis, Massachusetts Institute of Technology, 1985. http://hdl.handle.net/1721.1/75957.

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Thesis (M.S.)--Massachusetts Institute of Technology, Dept. of Architecture, 1985.
MICROFICHE COPY AVAILABLE IN ARCHIVES AND ROTCH.
Includes bibliographical references.
This thesis is a journal which describes the thoughts and decisions leading up to the final design of a comprehensive software environment for passive solar design. The main purpose of this writing is to convey why a comprehensive software environment for this particular field is needed in order to help teach the principles of passive solar design, so that they can be adequately taken into consideration in the architectural design process, and how such a system could be implemented. A case study involving the use of previously available passive solar design tools is used to point out areas where these tools are deficient in their ability to focus a designer's attention on pertinent building performance simulation data, which could be more effectively used to influence design decisions at the various stages of the design process. This leads to a discussion of how these shortcomings could be overcome through a new and different software design strategy which utilizes a systems approach to build a more flexible and powerful passive solar design tool. Through further experiments, practical considerations and real-world constraints are brought to light, and how they affected the conceptual development of such a system which I undertook to develop here at MIT for Project Athena. Next, certain implementation details are given which seek to bridge the gap between conceptual goals and practical software design considerations. How the internal organization of software code affects the external interactions between the user and the system, and how it can promote the qualities needed for software survival in an educational setting is addressed . Finally, the outcome of an experimental prototype for this s y stem is discussed, as well as my concluding thoughts regarding what I have learned through this endeavor about writing architectural design tool software.
by Steven E. Lotz.
M.S.
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Alenius, Jonas, Erik Arons, and Alexander Jonsson. "Passive houses in Uppsala : A study of a new passive solar designed residential area at Ulleråker in Uppsala." Thesis, Uppsala universitet, Institutionen för teknikvetenskaper, 2014. http://urn.kb.se/resolve?urn=urn:nbn:se:uu:diva-225594.

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Uppsala kommun has acquired the land at Ulleråkerand the plan is that it should be the starting point forthe new southeast district. The area is supposed toinclude 8000 new homes. The idea is also that the areashould be a new modern energy-efficient district. Thisreport examines how much energy that could be savedby using a passive house integrated design instead oftodays standard. Simulations in Matlab regarding localenergy utilization has also been done. Calculationsshow that the passive house integrated designgenerates in a total energy saving of 49 per centcompared to the standard house. The local electricalproduction comes from solar cell panels placed on theroofs and facades and the installed power is 19.8 MW.The production covers 80.3 per cent of the totalenergy demand or 91.4 per cent of the electricaldemand per year. But the systems production ismismatched to the local demand for electricity.
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Hoch, David M. "Passive and low energy building design for high latitudes." Thesis, University of Cambridge, 1988. http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.279588.

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Bilgiç, Serkan Günaydın Murat. "Passive solar desing strategies for buildings:A case study on improvement of an existing residential building's thermal performance by passive solar design tools/." [s.l.]: [s.n.], 2003. http://library.iyte.edu.tr/tezler/master/mimarlik/T000291.rar.

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NOSSHI, RAMSES. "WOLFBERY FARM: PASSIVE SOLAR DESIGN OF AN ECOLOGICAL AGRICULTURE RESEARCH FACILITY." Thesis, The University of Arizona, 1998. http://hdl.handle.net/10150/555417.

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Bower, Jeffrey R. "An expert system to provide direct gain passive solar design assistance." Virtual Press, 1995. http://liblink.bsu.edu/uhtbin/catkey/941364.

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An expert system has been constructed for the purpose of assisting in the design and analysis of direct gain passive solar environments. This system has been constructed for the use of senior undergraduate architecture students in a computer-based design studio. The primary use of the system is in the role of an educational tool which generates design recommendations from user input and predicts some physical characteristics of the environment.The system is applicable to passive solar environments with vertical, south-facing glazing. The system incorporates three models. The first model represents an attached sunspace with no thermal mass storage. The second model represents a direct gain living space. The third model represents a direct gain living space integrated with thermal mass storage. The third model allows the use of floors, ceilings, and walls as mass for thermal storage. Four representative mass materials (concrete, adobe, common brick, and dense concrete masonry) have been included for comparison purposes. Four representative sub-climates are also incorporated into the system: cold / arid, hot / arid, hot / humid, and cool / humid. For educational purposes, the system makes separate calculations for identical structures based on models for inhabited and uninhabited cases.The system incorporates scientific and mathematical relationships as well as rulesof thumb which have demonstrated their applicability to passive solar design. The system performs calculations based on work by Balcomb, et al. [5, 9], and Duffle and Beckman [1], to estimate environmental temperature swings, total solar energy input, and thermal absorption by mass storage elements. The system also utilizes models based upon work by Mazria [4] to recommend glazing areas. Recommended glazing areas are calculated from user input variables such as structure type, site latitude, and floor area.The system's ease of use allows it to be adapted for various classroom goals, and its generalized nature permits the instructor to adapt it easily into different areas of architectural design curricula. The system is written for use with the CLIPS expert system shell.
Department of Physics and Astronomy
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Books on the topic "Passive Solar Landscape Design"

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Great Britain. Department of Energy. Passive solar design. London: Department of Energy, 1985.

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Cradick, Karl. Planning for passive solar design. Watford: BRECSU, 1998.

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Taylor, David John. A passive solar church design. Bellingham, Wash: Huxley College of Environmental Studies, Western Washington University, 1986.

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Greenland, Jack. Passive Solar Design in Australia. Red Hill, Act: Royal Australian Institute of Architects, 1985.

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Dresser, Peter Van. Passive solar house basics. Santa Fe, N.M: Ancient City Press, 1995.

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Kachadorian, James. The passive solar house. White River Junction, Vt: Chelsea Green Pub. Co., 1997.

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Kok, Hans. Passive and hybrid solar low energy buildings: Passive solar homes, case studies. Edited by Holtz Michael J, International Energy Agency. Solar Heating and Cooling Programme, and United States. Dept. of Energy. Paris: International Energy Agency, 1990.

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Stephens, David Huw. The survivor house: A passive solar house design. Rhayader: Practical Alternatives, 1988.

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Johan, De Villiers, ed. Principles of passive solar building design: With microcomputer programs. New York: Pergamon, 1987.

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Yannas, Simos. Solar energy and housing design. London: Architectural Association, 1994.

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Book chapters on the topic "Passive Solar Landscape Design"

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Hemsath, Timothy L., and Kaveh Alagheh Bandhosseini. "Passive Solar BEM." In Energy Modeling in Architectural Design, 115–44. New York : Routledge, 2018.: Routledge, 2017. http://dx.doi.org/10.4324/9781315712901-6.

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Thorpe, David. "Passive design principles." In Passive Solar Architecture Pocket Reference, 50–70. Second edition. | New York, NY: Routledge, 2018.: Routledge, 2017. http://dx.doi.org/10.4324/9781315751771-4.

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Szokolay, S. V. "Thermal Comfort and Passive Design." In Advances in Solar Energy, 257–96. Boston, MA: Springer US, 1985. http://dx.doi.org/10.1007/978-1-4613-9951-3_5.

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Lynes, J. "Daylight Design for Passive Solar Buildings." In Building 2000, 213–15. Dordrecht: Springer Netherlands, 1992. http://dx.doi.org/10.1007/978-94-011-2558-1_8.

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Norton, Brian. "Passive and Hybrid Solar Design of Buildings." In Solar Energy Thermal Technology, 235–59. London: Springer London, 1992. http://dx.doi.org/10.1007/978-1-4471-1742-1_14.

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van Dongen, J., A. W. Tryssenaar, and B. A. W. Welschen. "PASCAUD Passive Solar in Computer Aided Urban Design." In Solar Energy Applications to Buildings and Solar Radiation Data, 72–75. Dordrecht: Springer Netherlands, 1988. http://dx.doi.org/10.1007/978-94-009-2961-6_7.

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Norton, Brian. "Passive and Hybrid Solar Design of Buildings." In Lecture Notes in Energy, 213–44. Dordrecht: Springer Netherlands, 2013. http://dx.doi.org/10.1007/978-94-007-7275-5_12.

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Kaviti, Ajay Kumar, Anil Kumar, and Om Prakash. "Effect of Design Parameters on Productivity of Various Passive Solar Stills." In Solar Desalination Technology, 49–73. Singapore: Springer Singapore, 2019. http://dx.doi.org/10.1007/978-981-13-6887-5_3.

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Yannas, Simos. "Passive Solar Heating and Energy Efficient Housing Design." In 1989 2nd European Conference on Architecture, 548–56. Dordrecht: Springer Netherlands, 1990. http://dx.doi.org/10.1007/978-94-017-0556-1_158.

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Norton, B., J. R. R. Wagge, and D. Newton. "Passive Solar Design of Green Park Combined School." In 1989 2nd European Conference on Architecture, 588–90. Dordrecht: Springer Netherlands, 1990. http://dx.doi.org/10.1007/978-94-017-0556-1_169.

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Conference papers on the topic "Passive Solar Landscape Design"

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Heckeroth, Stephen. "Passive solar design." In Intersociety Energy Conversion Engineering Conference. Reston, Virigina: American Institute of Aeronautics and Astronautics, 1994. http://dx.doi.org/10.2514/6.1994-4096.

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Gholami, Mohammad M. O., and Brian J. Ross. "Passive solar building design using genetic programming." In GECCO '14: Genetic and Evolutionary Computation Conference. New York, NY, USA: ACM, 2014. http://dx.doi.org/10.1145/2576768.2598211.

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Jinsheng Guo and Jing Li. "Passive solar house design of summer ventilation." In 3rd International Conference on Contemporary Problems in Architecture and Construction. IET, 2011. http://dx.doi.org/10.1049/cp.2011.1252.

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Looman, R. H. J., and M. M. E. van Esch. "Passive solar design: where urban and building design meet." In DESIGN AND NATURE 2010. Southampton, UK: WIT Press, 2010. http://dx.doi.org/10.2495/dn100121.

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Zirnhelt, Hayes, and Russell Richman. "Residential Passive Solar Design for Canadian Cities: Assessing the Potential." In ISES Solar World Congress 2011. Freiburg, Germany: International Solar Energy Society, 2011. http://dx.doi.org/10.18086/swc.2011.17.39.

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| estudi d’arquitectura, Nomarq. "ISH03. Benissa, Alicante. España." In 8º Congreso Internacional de Arquitectura Blanca - CIAB 8. Valencia: Universitat Politècnica València, 2018. http://dx.doi.org/10.4995/ciab8.2018.7401.

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Un remanso desde el que contemplar la naturaleza en un paisaje que tiene como telón de fondo al Mar Mediterráneo… se concibe la totalidad del territorio como materia de proyecto. Respetar al máximo el lugar, la naturaleza y potenciar al máximo la contemplación y disfrute de este entorno natural son los factores que determinan los puntos de partida en el diseño de esta vivienda. La idea de este proyecto nace de la propia morfología del lugar, proyectando desde y para el entorno. Bajo esta premisa se lleva a cabo la construcción de este edificio, supeditando el uso y la ubicación de la vivienda a la geometría de la parcela y adaptándose tanto a la orientación como a las vistas del solar. Proponemos una arquitectura de territorio, que la presencia de nuestra construcción impulse a imaginarse el lugar donde se erige. Un edificio que parezca estar fuertemente enraizado en el suelo, que de la impresión de ser una parte natural de su entorno. Como dice Peter Zumthor en su libro Pensar la Arquitectura: “Despierta toda mi pasión poder proyectar edificios que, con el correr del tiempo, queden soldados de esta manera natural con la forma y la historia del lugar donde se ubican.***A haven in which one can contemplate nature in a landscape with the Mediterranean Sea as backdrop... the entire territory is conceived as an additional material in the project. The respect to the settings and the surrounding nature, as well as maximizing both contemplation and enjoyment of this natural environment, are the key factors that determine the starting points in the design of this dwelling. The idea of this project arises from the own morphology of the site, designing from and for its setting. Under this premise, the construction of a detached house is carried out, subjecting the use and location of the house to the plot’s geometry and adapting it both to the site’s orientation and the views. We propose architecture of territory, that the presence of our construction impels us to imagine the place where it is erected. A building that seems to be strongly rooted in the ground, that give us the impression of being a natural part of its environment. As Peter Zumthor says in his book Thinking Architecture: “It awakens all my passion to project buildings that, with the passage of time, remain anchored in this natural way with the form and history of the place where they are located
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"Geometry-Material Coordination for Passive Adaptive Solar Morphing Envelopes." In 2017 Symposium on Simulation for Architecture and Urban Design. Society for Modeling and Simulation International (SCS), 2017. http://dx.doi.org/10.22360/simaud.2017.simaud.023.

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SHI, Feng, Wei JIN, Tao ZHUANG, and Weiwei ZHENG. "Analysis of Building Passive Design Strategies in Solar Decathlon China 2013." In 2016 International Conference on Architectural Engineering and Civil Engineering. Paris, France: Atlantis Press, 2017. http://dx.doi.org/10.2991/aece-16.2017.31.

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Zhang, Dali, Hongwei Xia, Jize Chen, and Changhong Wang. "Robust Planning Design for Geostationary Rendezvous Passive Safety with Solar Radiation Pressure." In ICIEA 2021-Europe: 2021 The 8th International Conference on Industrial Engineering and Applications. New York, NY, USA: ACM, 2021. http://dx.doi.org/10.1145/3463858.3463863.

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Robinson, Brian S., and M. Keith Sharp. "A Reconfigureable Passive Solar Test Facility." In ASME 2012 6th International Conference on Energy Sustainability collocated with the ASME 2012 10th International Conference on Fuel Cell Science, Engineering and Technology. American Society of Mechanical Engineers, 2012. http://dx.doi.org/10.1115/es2012-91290.

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A 12′ by 24′ passive solar test building has been constructed on the campus of the University of Louisville. The building envelope is comprised of structural insulated panels (SIPs), 12″ thick, (R-value of 45 ft2F/Btu) for the floor and walls and 16″ (R-63) for the roof. The building is divided into two symmetrical rooms with a 12″ SIPs wall separating the rooms. All joints between panels are caulked to reduce infiltration. Each room contains one window (R-9) on the north side wall, and two windows (also R-9) facing south for ventilation and daylighting, but which will also provide some direct gain heating. The south wall of each room features an opening that will accommodate a passive solar heating system so that performance of two systems can be compared side-by-side. The overhang above the south openings is purposely left short to accommodate an awning to provide adjustable shading. The calculated loss coefficient (UA) for each room of the building is 6.07 W/K. Each room is also equipped with a data acquisition system consisting on an SCXI 1600 16 bit digitizer and an SCXI 1102B isolation amplifier with an SCXI 1303 thermocouple module. Pyranometers are placed on the south wall and the clerestory wall to measure insolation on the solar apertures. For initial tests, one room is equipped with an original heat pipe system previously tested in another building, while the other is equipped with a modified heat pipe system. Changes to the modified system include copper absorbers versus aluminum, an adiabatic section constructed of considerably less thermally-conductive DPM rubber than the copper used for the original design, and one of the five condenser sections of the heat pipes is exposed directly to the room air to provide early-morning heating. Experimental results will be compared to simulations with as-built building characteristics and actual weather data. Previous simulations with a load to collector ratio of 10 W/m2K, a defined room comfort temperature range between 65°F to 75°F, and TMY3 weather data for Louisville, KY, showed that the modified heat pipe wall design improves annual solar fraction by 16% relative to the original design.
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Reports on the topic "Passive Solar Landscape Design"

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Renewable energy technologies for federal facilities. Passive solar design. Office of Scientific and Technical Information (OSTI), May 1996. http://dx.doi.org/10.2172/253364.

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Passive solar design strategies: Remodeling guidelines for conserving energy at home. Office of Scientific and Technical Information (OSTI), January 1991. http://dx.doi.org/10.2172/5941276.

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Passive solar design strategies: Remodeling guidelines for conserving energy at home. [Final report]. Office of Scientific and Technical Information (OSTI), December 1991. http://dx.doi.org/10.2172/10116440.

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