The aim of the diploma thesis is processing of the design documentation for realization of the construction of a kindergarten in Pohořelice. It is a detached two-storey building with a partial basement. The building is divided into two functional objects. There are two classes for the kindergarten, kitchen, and offices on the first floor. On the second floor there is two classes of kindergarten too, and three classes for school children. Vertical supporting structures are made of ceramic blocks, in the basement there are reinforced concrete structures. Horizontal load-bearing structures ale mad of prestresses hollow core slabs Spiroll. The object is based on concrete strip foundations. The building is roofed with green flat roof.

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Human settlement displaces and fragments natural habitats. Design choices in the landscape directly affect both local diversity and extinction rates. This study seeks to understand how avifauna are responding to this new technology in Mississippi.

Green roofs are increasingly being used in the United States to mitigate the negative effects of impervious surfaces on aquatic ecosystems. Though performance of these systems varies with climate, little research has been conducted in the Southeastern U.S., and no prior research has been conducted in Mississippi. An experiment was conducted to determine the effect of soil depth and roof slope on the stormwater retention of green roofs in Mississippi’s hot, humid climate. Simulated roof platforms were constructed to investigate two soil depths and two slopes, each replicated three times and planted with four species of Sedum. The green roof platforms significantly reduced runoff depth when compared with total rainfall depth. Soil depth and slope both significantly affected retention, with higher retention seen with increasing soil depth and lower retention seen with increasing slope. These results indicate that green roofs can be an effective tool to reduce runoff in Mississippi.

The new public library building needs to meet a lot of diverse demands. It has to be developed in conjunction with librarian's needs, it has to react on existing urban conditions and it needs to be self-defining and future oriented, so it will be able to cope with radical changes in the communications we experience nowadays. Our proposition is a reaction to the impulses of the site combined with our view of what a new library should represent. It is: communication, interaction, inspiration. We try to eliminate negative aspects of the selected site and on the other hand, use and develop existing potential. The building tries to terminate the big crossroads next to the site and on the contrary to create a nice quiet public space with the church. It also wants to be a new landmark and icon of the town. The solution we found is based on two main principles. A fence. And a hill. Fence as a guard and prevention from crossroads, as a closure of the urban block and public space with green and church building inside, as a boarder with the industrial part of the town, as a show-off wall, a allure to the world of wisdom and quiet public space behind... It is represented by double glass facade along the border of the site. Hill as an activator of the site, as an icon and a brand of the place, as a second hill in whole town, as an island and oasis, as a place for sport, play, as an open public reading room, as a natural amphitheatre... It consists of a simple green roof raising from the church towards the sky, covering the library buiding.

The thesis takes into notice a rare case of integration of rooftop urban agriculture into sustainable development of urban areas. The current situation shows that the development of rooftop urban agriculture has not been adequately studied. This master thesis aims to enhance the understanding regarding planning opportunities and challenges for integration of rooftop urban farming in urban design and sustainable urban development with a focus on environmental benefits of its implementation. Furthermore, the thesis brings up a conceptual design programme «Malmö FIVE» that shows one of the ways how architects and urban planners could inspire city developers and municipalities to explore the ways of the redevelopment of the existing unused urban spaces into the new resilient environments.  The thesis based on a combination of literature review, analysis of planning materials, site visits, conducting interviews, discussions and attending seminars and lectures to answer the research questions. The research identified multiple challenges that can be encountered in the process of implementation of rooftop urban agriculture. The findings determined the importance of rooftop urban agriculture being approached from the strategic sustainability perspective to value its potential fully. Rooftop urban agriculture can provide significant environmental values thus have an essential role in the sustainable development of urban areas.

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The aim of my thesis is to design new Guest house in Čeladná. First part is focused on building design and construction. Second part is focused on heating, ventilation and air conditioning (HVAC) design and renewable energy sources. Third part is focused on detailed solution of noise and vibration from the environment around building. Guest house is three – storey building but there is one more underground storey for technical facilities. Ground floor contains staff facilities, restaurant, entrance hall with stairs and office. On the second floor we can find four guest rooms with terrace and corridor. On the third floor we can find three guest rooms. Heating in the building is secured by gas condensing boilers. Ventilation is provided by two air condition units. Each guest room has radiators and cooling distribution units and ventilation. Cooling is secured by one cooling unit on the green roof. On the gable roof we can find 75 photovoltaic panels. Third part is focused on detailed solution of noise, vibration from the environment around building and spatial acoustics of guest room. The thesis is carried out in AutoCAD, Sketch up, Lumion and DEKSOFT software. All structures comply with the valid standards and regulation.

Sustainability has been heightened to a new level of importance, due to the current global race for commodities and conservation of our environment. Sustainable Buildings are of particular interest since buildings are significant contributors to consumption of resources. Since the inception of the United States Green Building Council (USGBC) in 1993, USGBC has played a key role in providing guidance to the design and construction community in building“green" structures. The Leadership in Energy and Environmental Design (LEED) rating system is an industry accepted standard for the design/construction and measurement of green buildings. Although USGBC provides guidance on performance measurement, a streamlined process of performance tracking and measurement has not been formalized. This research focuses on identifying vital areas of required tracking and measurement; to allow for a systematic analysis of costs and benefits, over the life of sustainable buildings. A case-study based on the recently designed and constructed East Hall LEED-Gold Certified, dormitory building at Worcester Polytechnic Institute (WPI), was undertaken to create and assess a life cycle costs analysis framework. This research is aimed at understanding what the costs of building green at WPI truly are. Life Cycle Cost Analyses of the mechanical, electrical, plumbing and roof components were evaluated to generate percent savings or percent added cost. This research reviewed the various green and non-green costs of construction, consumption, and operations and maintenance costs providing a comparative analysis to leading researchers in the field of costs and benefits of building green.

Three different green technologies are compared in terms of net energy and carbon savings for a theoretical Toronto rooftop. Embodied energy values are calculated through Life Cycle Analysis and compared to the estimated energies produced and/or saved by each technology. Results show that solar photovoltaics displace the most carbon per m2 of roof space and solar thermal (for hot water) displaces the most energy. An in-depth analysis of an intensive green roof for growing food indicates that the high embodied energy of the materials is not quickly repaid by the sum of six energy savings that were examined (direct and indirect cooling, run-off treatment, transport of food, on-farm energy use, and activities that would otherwise be carried out). However, the energy and carbon benefits are not insignificant, but depend strongly on various assumptions. The methodology used is replicable and therefore useful for other locations.