
Explore the three sustainability pillars—environmental, social, and economic—and learn how planet, people, and profits interdependently shape sustainable building design in the UAE.
Explore the hot desert climate of the UAE, with its two seasons, extreme summer heat up to 45°C, winter down to 12°C, and the link between temperature and monthly precipitation.
Explore how climate change and global warming drive rising greenhouse gas emissions, illustrated by rising CO2 levels and their impact on buildings and energy sectors.
Explore solar integration and sustainable building design, including grid-connected photovoltaic systems, inverters, and power meters, to optimize renewable energy use and achieve a net zero passive style house.
Explore UAE energy strategies and Dubai's CO2 emissions trends, including sector shares and renewable energy progress. Review DEWA's emissions reduction program targeting 35% by 2030 and net zero by 2050.
Explore sustainable and zero energy buildings in the UAE, highlighting energy efficiency, envelope design, eco-friendly materials, water and waste management, indoor air quality, and nearly zero to positive energy types.
Explore global green building rating systems such as breeam, leed, well, edge, fitwel, dgnb, casbee, and green star, and UAE regulations estidama, al safat, and barjeel shaping sustainable construction.
Discover life cycle assessment as a scientific method to measure a building’s environmental impacts from material extraction to demolition, using EPDs and LCC to inform sustainable design and certifications.
Explore the building envelope—floors, roofs, walls, windows, and doors—and heat transfer modes, conduction, radiation, and convection, and how computational fluid dynamics simulations optimize comfort and energy in the UAE.
Explore energy behavior in buildings by analyzing passive and active energy consumption, design choices, thermal bridges, air leakage, and high-performance insulation, glazing, and shading in UAE.
Explore modular construction as a factory-built, offsite method that cuts CO2, energy use, and waste while enabling rapid, controlled assembly for sustainable UAE buildings.
Explore the fundamentals of solar photovoltaic power systems, from the photovoltaic effect and silicon cells to modules, inverters, and grid-connected design for sustainable UAE buildings.
Design and optimize an optimum PV power plant through pre-feasibility and feasibility studies, considering site data, topography, and environmental and social considerations for reliable energy yield.
Predict the energy yield of a PV power plant by modeling irradiance on the tilted plane, ambient temperature, and losses with hourly to subhourly simulations using site data.
Analyze losses in a pv plant from air pollution, soiling, shading, incident angle, low irradiance, module temperature, quality and mismatch, inverter and cable losses, grid unavailability, using 3d shading modeling.
Balance megawatt scale solar plant design by optimizing losses, layout, tilt, and module configuration to maximize annual energy yield and revenue under site-specific irradiance, shading, and latitude.
Explore how solar radiation and pv panel tilt affect energy yield. Explain azimuth as the angle between the panel's vertical plane and south, and tilt as the angle to horizontal.
Compare fixed and tracking mounting structures for solar photovoltaic installations—ground, roof, carport, and building-integrated setups—with single or double axis trackers, galvanized aluminum frames, row spacing, and temperature effects.
Apply sizing and design fundamentals for a Dubai solar system by using diwa regulation, 1.2 dc/ac ratio, space checks, PV capacity, and string sizing.
Assess the DEWA regulation that sets a maximum DC/AC ratio of 1.2 for sustainable building design in the UAE. Analyze how the DC/AC ratio affects AC output.
Explore the i-v curve to understand current and voltage behavior, including isc, imp, voc, and vmp, and how power drops to zero when voltage or current is zero.
Explore Virginia Tech house from Solar Decathlon Middle East 2018, analyzing architecture, building integrated photovoltaics, performance, with emphasis on cube design, orientation, shading, and structural insulated panels reducing cooling loads.
Baity Kool House demonstrates building integrated photovoltaics in a 78 m² positive energy home. BiGlass and biomimetic PV drive continuous production.
Explore the Sharjah house case from Solar Decathlon Middle East 2021, a compact positive energy house with a double-skin facade, sun-tracking roof, and BIPV.
Explore cool roof experiment at the University of Sharjah, testing white cool barrier paint with photovoltaic panels to reduce heat, lower indoor temperature, and boost PV efficiency by 3%.
Design a compact UAE building with an East-West axis to minimize heat transfer, place living areas north, and apply ventilated double-skin facades with BIPV to cut energy use.
Apply seven-step design framework for sustainable buildings in Dubai, covering site analysis, passive design, materials. Explore off-site construction, prototype development, and on-grid solar PV sizing to compare consumption with production.
Design a simple sustainable house for a newly married couple in Dubai's Crystal Lagoon by conducting site analysis, optimizing energy consumption through geometry, wind, shading, and solar production.
Design and simulate residential energy use in Dubai with Cove Tool, evaluating envelope u-values, shading, solar panels, and hvac to optimize kilowatt hours per year and CO2 against 2030 targets.
Use Pvsyst to simulate a grid-connected solar PV system for Dubai, configuring location, tilt, modules, inverter, losses, and 3D shading to estimate annual energy and performance ratio.
Welcome to our course: How to design and simulate a sustainable building in UAE. This course is prepared by SGA, which stands for Smart Green Architecture, a business founded by both professional engineers Zahraa and Rawan, who studied and are experienced in sustainable architecture and solar energy.
This course will provide you with a better understating of sustainability, and a clear picture of sustainable buildings & related rating systems. You will Know more about the solar photovoltaic power system. You will learn about case studies analysis related to zero-energy houses. And finally to be able to design and simulate a sustainable house.
We prepared this course for Architectural Engineers, Sustainable & Renewable Energy Engineers, Solar Engineers, Sustainable Architecture Engineers, Young executives, and professionals engaged in sustainability activities., Sustainability practitioners and consultants, Graduate students and interns engaged in sustainability activities, Engineering, science, business, and sustainability students who are keen on sustainability careers in the future.
We divided this course into 5 volumes
VOLUME 1 is an Introduction to Sustainability
VOLUME 2 is about Sustainable Building
In VOLUME 3 we will explain Solar PV Power System
VOLUME 4 consists of Case Studies about zero-energy houses
And the last VOLUME is about Design and Simulation
Note: Please make sure to check our resources to have more helpful information.