This research is directed towards solving the problem on one hand the new technology prompting the architects to think in a new way for architecture, developments and formation, and on the other hand the emergence of new materials and applications, as well as the change in the style of structural systems for new sustainable buildings .
Nanotechnology identifies its characteristics, showing its enormous potential to create new materials and devices that will be useful in developing future cities, which will be inhabited by forthcoming generations of humanity . In this paper, we review the main features that characterize nanotechnology.
“Nanotechnology” goes beyond Nano-science, and aims to convert the basic knowledge that it provides us with regarding the new properties of materials and goods, to improve existing products or propose radically new ones . Thus it is
Figure 1. Some main services in city center that use nanotechnology. Source: The author.
clear that nanotechnology is essentially concerned with the application of knowledge arising from Nano-science. Smart cities are slowly becoming a reality, developing pilot projects in many parts of the world (Amsterdam, Dubai, Helsinki, San Diego, San Francisco, Spain) by mid-century, many of our cities will have reached reasonable levels of “intelligence” . Nanomaterials are not only useful for some partial requirements like roof and facades; they also expand some design possibilities both for sustainable design strategies and architects . Nano construction materials are intelligent to achieve energy efficiencies and environmental comfort. We note using nanotechnology in different buildings in city center as shown in Figure 1.
The search will highlight aims of nanotechnology, its factors and case studies for such buildings in city center and the extent of the possibility of applying this technology in other buildings on the outskirts of the city.
3. Aims of Technological Adaptability
A—Users’ well-being and safety:
- Indoor environmental quality.
- Life quality.
- Interactivity with the building and other users.
B—Building long term value :
- Longevity and viability.
- Upgraded image.
- Modern components with low cost.
- Fit for different uses and users (residential, commercial, offices, cultural, etc.) to suit market demands.
- Cost effectiveness.
- Fit into and add to the environment by:
- Preserved connection with buildings’ surroundings (other buildings, neighborhood);
- Harmless, yet Positive impact of the building on the environment;
- Energy efficiency.
- Flexibility, Multi-functional and trans-functional spaces .
4. Intelligent Building
Provide an optimized solution of sustainability and intelligence that will help the agenda of living in a healthy, comfortable, and technologically advanced world. A building that uses both technology and process to create a facility that is safe, healthy and comfortable and enables productivity and well-being of its occupants. Smart or clever buildings, perhaps focus on control systems, but intelligent buildings go far beyond this . An intelligent building has an implicit logic that effectively evolves with changing user requirements and technology, ensuring
Figure 2. Aims of technological adaptability. Source: Faiza Nakib, technological adaptability, an approach towards a flexible and sustainable architecture, international conference on technology & sustainability in the built environment, Riyadh, Saudi Arabia, Volume: 3, January 2010.
Figure 3. Intelligent building technologies effects on sustainability issues. Source: F. Pacheco-Torgala, Said Jalali, and nanotechnology: Advantages and drawbacks in the field of construction and building materials, Construction and Building Materials Volume 25, Issue 2, February 2011.
continued and improved intelligent operation, maintenance and optimization . It exhibits key attributes of environmental sustainability to benefit present and future generations. The design and construction of building envelopes involve the use of multiple layers of different materials to achieve a wide array of functionalities, including strength, light filtering, thermal insulations, sound insulations, weather resistance and architectural appearance.
5. Factors Affecting Criteria of Intelligent Building
A) CR—Construction Requirement.
B) EC—Environment Control.
C) WM—Water Management.
D) DW—Disposal Waste.
E) IBA—Integrating Building.
6. Case Study 1: Residential Buildings
The Nano-House is a new type of ultra-energy efficient house exploiting the new materials being developed by nanotechnology. Hydro-House uses natural airflow and seawater to cool and make the greenhouse humid. Seawater is evaporated at the facades of the greenhouse; as air passes into the green house, it increases the humidity . But the smart part is in the structural columns, which also serves as supports for the growing racks . When it rains, fresh rain water is allowed to trickle down from the roof, within the cylindrical columns (Figure 4).
Figure 4. Nano houses as a new type of ultra-energy efficient house. Source: https://www.pinterest.com/bwandersen5/nano-houses/, and Ossama Omar, Nano architecture Future Housing, Conference: Jourdan Housing Developers Association, At: Amman, April 2015.
7. Case Study 2: Torre De Especialidades, Hospital
Manuel Gea Gonzales:
Prosolve was chosen by the hospital in part for its anti-microbial, de-polluting effect, as well as providing visual complexity, memorable in form, as a counter to the city’s air pollution problem. According to recent studies of the technology, the facade at Torre de Especialidades is reducing the pollution of 1000 cars per day (Figure 5).
8. Case Study 3: Italian Pavilion, Expo 2010 Shanghai (Better City, Better Life)—Using Nanomaterials and Economic Architecture
The pavilion presented the Italian people, their creativity and culture using
Figure 5. Manuel Gea Gonzalez Hospital using conventional TiO2. Source: Prosolve370e—Elegant Embellishments, Decorative facades that eat pollution “the incredible smog-eating building”—CNN.
innovative environmentally sustainable construction techniques,  technologies and materials, as well as infrastructures. materials used in the pavilion and made out of 40% recycled materials, and Nanomaterials because Nanomaterial can make constructions more economic because they are ten times lighter but hundred times stronger than regular materials  (Figure 6). They focus on energy saving than regular materials.
Using transparent cement (a precast concrete panel) creations involved using fiber optic cables to transmit light, which is an effective method, as shown in Figure 7. Obtained by bonding special resins in an innovative mortar , the mixture used has the characteristics and fluidity needed to secure resin in the panels, which allow the optic transmission of light and of the images without compromising the insulative properties and strength typical of a cement-based material. The resins are selected polymers that interacting with artificial as well as natural light, create a warm and soft light inside the building and a picture of light clarity from the outside without creating cracks and compromising the structure.
The project and its specifics find a new method of the building based not only on energy savings, but is representative of a bioclimatic operation. “Inspired by the concept of harmony in variety, Imbroglio Architect’s project signifies a look
Figure 6. Italian pavilion, Expo 2010 used 40% recycled materials. Source: Category exhibition, italian pavilion for shanghai Expo 2010.
Figure 7. Using transparent cement, to save energy—a bioclimatic operation. Source: Category exhibition, italian pavilion for shanghai Expo 2010.
into the future through a structure held together by the light. The project was able to carry the image of a country on the move, which intends to be an original and economical player in the globalized world.
The building features a highly flexible interior space in which an artificial landscape made of alleys, streets, and squares is exemplified. The pavilion appears as a city whose crossing is marked by irregular closures and openings suggested by the light, which lights the different areas.
9. Case Study 4: [Forum Mall, Bengaluru]
Building Management System (BMS). BMS Provider: Trend Control Systems, Honeywell Forum Mall, Bengaluru, India is fitted with a computerized building management system that senses where the maximum footfalls are leading and increases the cooling and ventilation in those areas (Figure 8). The sensors channel the information to the controllers of the HVAC (Heating, Ventilation, and Air Conditioning, Climate Control) systems, which respond accordingly. Sensors and controllers thus help to optimize the consumption of energy by using networks to relay intelligent inputs detailing the attributes of the physical environment to building services systems.
10. Case Study 5: Mauritius Commercial Bank Ebene Cybercity Building
Ebene Cyber City, Mauritius was awarded the Intelligent Building of the year by the Intelligent Community Forum, USA in 2005. It uses an Integrated Management System Comprehensive Integration of all utilities, including HVAC automation, Integration of ventilation and exhaust system to fire and other systems, Monitoring of Vertical transportation System, and Emergency Voice Communication System for Evacuation (Figure 9).
Through the theoretical study, we find that the applications of nanotechnology have been used in different uses of buildings, but not yet used in the buildings of nuclear plants, which would achieve security, safety and environmental protection. Therefore, the research recommends the need to rely on nanotechnology in the construction of nuclear power plants, especially in Dabaa project in Egypt.
11. Applied Study: Nuclear Plants
Nuclear is safer than most energy sources and is needed if the world hopes to decrease its carbon emissions . Nuclear power has many advantages, it produces energy, it generates electricity with no output of carbon, switching from coal to nuclear power is radically step to decarbonizing and it releases less radiation into the environment than any other major energy source. Nuclear plants evolved through time and became one of the most important concerns of developed countries. As shown in Figure 10 is historical development of nuclear plants.
Figure 8. Shows using transparent concrete, HVAC system. Source: Ashish H. Makwana, Darsh Belani, intelligent building new era of todays world, 2014.
Figure 9. Ebene Cyber City, the intelligent building 2005. Source of pictures: The futuristic building housing the mauritius commercial bank in Ebene Cyber City, Mauritius high-res stock photo—Getty Images.
Figure 10. Shows historical development of nuclear plants. Source: Author using nuclear plants pictures Wikipedia.
We find that all of these nuclear plants can be applied nanotechnology in their facilities, whether in the constructional aspects or architectural systems and finishing, which make them more secure and less dangerous to surrounding constructions, especially if such facilities are close to existing urban areas such as Koeberg Nuclear Power Plant, South Africa and Dabaa Nuclear Power Plant, Egypt as shown in Figure 11, Figure 12.
Figure 11. Shows the relationship between Koeberg nuclear power plant buildings and touristic villages viewing the ocean, South Africa. Source: Author.
Figure 12. Shows the relationship between EL DABAA nuclear power plant buildings and touristic villages along north coast, Egypt. Source: Author.
12. Dabaa Nuclear Power Plant, Egypt
Egypt has come a long way towards achieving the nuclear dream. After many attempts, it is only steps away from establishing its first nuclear plants. The Dabaa nuclear power plant project is one of the major national projects implemented by Egypt, and it represents a major shift for the country in the field of power and electricity generation. The study pointed out that the establishment of advanced nuclear plants put Egypt at the forefront of the developed world, through the economic, technological and social advantages associated with this type of technological application, especially with the tremendous technological advances reached by the nuclear energy sector in the world.
Plant Type: Nuclear power plant (NPP).
Location: Egypt El Dabaa, Matrouh Governorate, 250 km west of Alexandria (Figure 13).
Capacity: 4.8 GW.
There has been a strong realization of the potential threat of both nuclear criticalness and release of radioactive materials. Operation and engineering are designed accordingly.
One of the most obvious advantages of nuclear power plants is its ability to generate electric power, The net capacity of generating electricity in the Dabaa nuclear power plant is 4800 MW, which will increase the volume of electricity generated at the national level, increase Egypt’s ability to export energy in the future, and strengthen its strategic position it deserves in the region.
13. Anotechnology Materials in Construction Process
According to the previous case studies, the research concluded a group of important applications based on nanotechnology in construction. These applications have to be followed and applied for Dabaa Nuclear Power Plant in a sustainable way through a strategy that achieves the highest level of safety and functional efficiency (Table 1).
Figure 13. Shows Dabaa nuclear power plant, Egypt. Source: Documents of nuclear plant to be reviewed over 18 months, Egypt Today staff, Nov. 2018.
Table 1. Shows a group of important applications based on nanotechnology in construction. Source: The Author.
14. Proposal for Using Nanotechnology Applications at Dabaa Station
The research has come up with a strategy, this strategy enables each phase of the material system development to account for critical downstream design constraints constructions, scenarios and efficiencies needed for possible self-sustaining system, state this adaptive material system for the building envelope to optimize material use and to integrate additional functions such as self-sustaining energy production and climate control . In view of the different architectural models of nuclear plants in recent decades, it is clear to us that there are several factors that determine transformations in designs to meet the needs of these plants in accordance with special technology and legislation. It is provided that the main objective is making reactors cleaner, safer and less dangerous (Figure 14).
Figure 14. Shows a proposal for using nanotechnology applications at Dabaa Station. Source: Author.
So depending on nanotechnology materials is considered one of the best methods in construction for such this type of buildings to achieve safe and safety and efficiency.
Nanotechnology construction products have many benefits and avails in the construction process that achieve economic development, The applications of nanotechnology in architecture can vary widely from early stages to the final touches of finishes and throughout the building’s lifetime . We need architects, scientists and technologies to give any new regulatory controls are required.
So, the research recommends that it is necessary and urgent to adopt and follow nanotechnology approaches in a sustainable way to save energy, reduce resources consumption and avoid environmental hazards. Therefore, achieve economic development and a sustainable future.
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