Courses
deep and applied theory
behind all elements
Courses
deep and applied theory
behind all elements
Courses
deep and applied theory
behind all elements
Please, have a look at the courses we teach so far. There is potential to generate new courses in the scope of CFD simulations, HVAC, space propulsion, or wildfire simulations.
Aerospace Combustion
Aerospace Combustion
Course 1
Space Propulsion
Space Propulsion
Course 2
HVAC
HVAC
Course 3
Aerospace combustion
Introduction:
Combustion will continue to be an essential way to convert energy in aerospace for the foreseeable future. Air-breathing and rocket engines are vital for the propulsion systems of aircraft and spacecraft, which are necessary for many strategic and economic activities. The course offers a comprehensive look at combustion technologies used in modern aerospace. It starts with basic combustion concepts, covering deflagration, detonation waves, and laminar flame theory. This foundational knowledge leads to more advanced topics, such as turbulent combustion and practical applications. The course also discusses combustion models and Computational Fluid Dynamics (CFD) methods, commonly used tools in the industry. Additionally, it covers the design of injectors and combustion devices.
Objective:
This course aims to provide a comprehensive understanding of various combustion phenomena and rocket propulsion systems, covering topics such as laminar flame theory, deflagration and detonation waves, premixed and diffusion flames, and turbulent combustion. Participants will explore the principles of air-breathing engines, solid and hybrid rocket motors, and liquid rocket engines, focusing on combustion chamber and injector design. The course will also address combustion instabilities, the theory of turbulent flows, and the application of CFD to combustion processes, including spray combustion.
Teaching and learning method:
The course is taught through presentations and lectures introducing definitions and concepts of aerospace combustion. Participants can access presentation slides, extra materials, and practice exercises with sample solutions.
Space Propulsion
The principles of rocket propulsion are illustrated through the lens of commercial space transportation systems. In addition to the fundamental concepts of orbital mechanics, significant characteristics of rocket engines are thoroughly examined, with particular emphasis on liquid rocket engines due to their critical role in aerospace. This exploration includes discussions on propellants, construction and design, thrust chamber components, and turbomachinery. Unique aspects of auxiliary and satellite engines are also covered separately. Additionally, the course presents essential features of solid rocket propulsion, hybrid propulsion, ramjets, electric propulsion, and nuclear propulsion. Participants will gain insights into current rocket engine development, as well as the business landscape and organizational structures of the European aerospace industry. The design of key rocket engine components is a focal point, particularly the injector, combustion chamber, and nozzle, with advanced nozzle design concepts also explored. Considerations for start-up and shut-down procedures will be discussed, alongside potential interactions between the rocket engine and its feed system. The course will highlight failures and lessons learned through the case study of the ARIANE 1-6 rocket engine family. Finally, the necessary project and management structures for successful rocket engine development will be presented and analyzed.
Objective:
Participants will be able to define key terms related to rocketry and identify essential factors that influence rocket performance. They will develop an understanding of the complex processes involved in rocket engine operation, enabling them to analyze significant characteristics of actual rocket engines using simplified models and evaluate their performance based on key metrics. Moreover, participants will be equipped to define and elucidate all necessary terminology and relationships within rocketry. They will be able to recognize the intricacies of processes occurring in rocket engines. Additionally, participants will possess the skills to analyze and assess real rocket engines through modeling techniques. Utilizing relevant literature and tools, they will be capable of independently designing a simple rocket engine.
Teaching and learning method:
The course content is delivered through presentations and lectures, where definitions and concepts are introduced and understood through real-world applications and calculation examples. The presentation slides, supplementary materials, and exercises with sample solutions.
HVAC
Introduction:
Heating, Ventilation, and Air Conditioning (HVAC) encompasses the technology and systems that provide thermal comfort and acceptable indoor air quality in various environments. These systems play a crucial role in maintaining comfortable living and working conditions, while also promoting energy efficiency and sustainability. HVAC course is designed to provide a comprehensive understanding of this essential field. This course will explore the principles of HVAC systems, including design and equipment selection. Participants will engage in critical topics such as heat transfer, air quality management, and energy efficiency.
Objective:
This HVAC course aims to give participants a comprehensive understanding of heating, ventilation, and air conditioning HVAC systems. The course begins with an introduction to HVAC basics, including the components and their roles in ensuring indoor comfort and air quality. Participants will explore the fundamental properties of air and water vapor mixtures, which are essential for effective system design. The course will introduce psychrometric principles, focusing on the changes in air properties during various conditioning processes, and discuss factors influencing human comfort in indoor environments and outdoor design conditions. Participants will learn how to calculate heating and cooling loads, design heating and cooling systems, and select appropriate air conditioning units based on building requirements. The course culminates in a project design for residential buildings, integrating all principles and calculations learned while emphasizing practical applications and energy efficiency.
Teaching and learning method:
The course is taught through presentations and lectures introducing definitions and concepts of HVAC. Participants can access presentation slides, extra materials, and practice exercises.