Research & Development
JAXA promotes three research and development programs and a fundamental research program that underpins them.
Science & Basic TechAeronautical Science and Basic Technology Research
Through carrying out fundamental research into aerodynamics, engines, materials and structures, numerical analysis, and flight mechanics, JAXA Aeronautics supports diverse research and development activities in space and the sky from behind the scene.
JAXA Aeronautical Technology Directorate plays an important role in pursuing fundamental research that will lead to new technologies, and continuously enhances its experimental and analytical capabilities to support aviation and space research activities both of JAXA and industry.
Through carrying out fundamental research into aerodynamics, engines, materials and structures, numerical analysis, and flight mechanics, as well as by maintaining and enhancing Japan's large-scale test facilities, JAXA Aeronautical Technology Directorate supports diverse research and development activities in space and the sky from behind the scene.
We manage and operate a cluster of wind tunnels of various speed and sizes. Our R&D efforts include a range of research on aerodynamic technologies and wind tunnel technologies to provide higher-accuracy and higher-quality test data more efficiently.
We conduct wide-ranging research on flight system technologies that enhance safety and mission capability of aircraft, such flight control technology and pilot assist technology, thereby contributing to our society.
We develop and mature leading-edge technologies for aeroengines that enable further improvements in fuel efficiency and environmental compatibility. Our R&D efforts also include the development and demonstration of the state-of-the-art propulsion technologies, such as renewable energy technology and hypersonic propulsion technology.
We are taking a multifaceted approach in studying materials and structures. Our research and development activities ranges from the development of advanced composites, which are applicable for use in the extreme environments of ultra-low and ultra-high temperatures such as engine and spacecraft structures, to the studies on strength prediction methods, optimum structural design methods, aero-structural coupling (aeroelasticity) phenomena, molding technologies and measurement techniques. Our efforts also include the standardization related activities.
We conduct wide-ranging R&D activities, from the creation of high-value technologies, such as the unsteady fluid flow solver having world top class speed and a combustion simulation tool, to the social implementation of developed technologies by maturing them into a practical format such as numerical simulation software.