• von Karman Institute for Fluid Dynamics

    Training in Research through Research

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  • von Karman Institute for Fluid Dynamics

    Education in Research through Research


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  • von Karman Institute for Fluid Dynamics

    Education in Research through Research


    Read More

  • von Karman Institute for Fluid Dynamics

    Education in Research through Research


    Read More

  • von Karman Institute for Fluid Dynamics

    Education in Research through Research


    Read More

  • von Karman Institute for Fluid Dynamics

    Education in Research through Research


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H2020

HYper SMM

An innovative methodology to assess the performance of

sand mitigation measures


In desert environments and sandy coastal regions, windblown sand can increase management costs and also cause disasters in civil structures and infrastructures. On the one hand, urbanized coastal areas are experiencing increasing windstorm frequency due to climate change, causing sand transport from beaches to anthropic environments. On the other hand, desert regions are more and more hosting new infrastructure megaprojects.

The recent demand for sand mitigation measures is expected to increase further in the coming years. However, their rigorous performance assessment is still absent in scientific literature and technical practice. This is because the nature of windblown sand makes analytical approaches inapplicable, and current experimental physical and computational approaches don’t meet the needs of infrastructure designers.

To address this issue, the EU-funded HyPer SMM project aims to develop an innovative hybrid approach that will serve as a novel design and assessment methodology for SMMs. The approach will combine innovative wind-sand computational simulations and highly reliable wind-sand tunnel testing.

 

Objectives

 

The proposed hybrid approach combines highly reliable Wind-Sand Tunnel Test (WSTT), and innovative Wind-Sand Computational Simulations (WSCS) analysis.

HyPer SMM approach foresees the use of WSTT to qualitatively observe physical phenomena and quantitatively measure sand and wind state variables, and to enable tuning and validation of the WSCS model. On the other hand, WSCS is adopted as a design tool to setup an effective testing protocol for WSTT.
Furthermore, once validated at the WSTT scale, WSCS allows to extend WSTT measurements in order to assess sand mitigation measure performances from scale to full-scale conditions, and analyse variables not measured/measurable during WSTT.

The complementary combination of WSTT and WSCS will provide a deep insight into the scaling effects to sand mitigation measure performance, lowering the costs and time consumption with respect to in-situ full scale testing. The multidisciplinary-intersectoral layout of HyPer SMM project is conceived to implement the hybrid approach, and to allow its industrial application perspective.

 

Partners

The HyPer SMM project foresees the close cooperation between von Karman Institute for Fluid Dynamics, as beneficiary, and the computational wind engineering consulting company Optiflow member of Windblown Sand Modelling and Mitigation joint research group, as partner organization.

 

Project Stats

Duration: 2 years (1 July 2020 - 30 June 2022)

Budget: € 166 320

This project has received funding from the European Union’s Horizon 2020 research and innovation programme under the Marie Skłodowska-Curie grant agreement No 885985.

 

 

 

Get electric propulsion to get to space

Electric propulsion (EP) is considered by all space actors as a revolutionary technology for the new generation of commercial and scientific satellites. In Europe, all stakeholders including the European Space Agency (ESA) have been working to develop and increase the competitiveness of the European EP technology for different types of markets. The EU-funded AETHER project will advance EP thruster design towards a more flight representative stage. It will demonstrate sufficient and reliable net thrust production for the target applications. The ultimate goal of the project is to advance the EP portfolio of Europe with the world’s first EP air-breathing engine.

 

Objectives

The limiting factor for the duration of space endeavours is often related to the total mass of propellant available on board. If a new propulsion device was capable of using the upper layers of the atmosphere as propellant, this would enable a vast spectrum of new planetary mission scenarios.

In recent years SITAEL has produced the world’s first example of such a device, the “RAM-EP” engine. This innovative electric propulsion (EP) thruster was successfully tested in an environment representative of VLEO, achieving TRL4.

The AETHER project will advance the thruster design towards a more flight representative stage, experimentally demonstrating sufficient and reliable net thrust production for the target applications. This will be achieved through the design optimization of the various thruster components, careful selection of materials and proper diagnostics tools, together with system-level design considerations.

The project aims to improve the maturity of technologies associated with the main RAM-EP functions and to define a configuration of the RAM-EP system that integrates in a synergic way the different technologies. The von Karman Institute is responsible for the development of the intake/compression stage that gathers the scarce molecules from the atmosphere and delivers them to the electric thruster. The von Karman Institute will also support the aerodynamic design of the spacecraft plateform and participate in the ground testing activity to validate the design of the RAM-EP thruster and evaluate its performance.

Successful completion of the AETHER project will advance the electric propulsion portfolio of Europe with the world-first EP air-breathing engine, potentially shifting the paradigm of VLEO, LEO and planetary missions.

 

 

Partners

Six Member States are involved in Aether: Italy, Belgium, United Kingdom, Greece, Germany, Austria.
The seven members of the Consortium are a well balanced mix of entities (one research institution, one large enterprise, four SMEs and one non-profit organisation), which has been conceived to maximise knowledge and expertise necessary for the successful achievement of all the project’s goals.

The coordinator of the project is SITAEL and the 6 partners are: the von Karman Institute for Fluid Dynamics (Belgium), University of Surrey ( United Kingdom), Data Evaluation and Diagnostics Algorithmas of systems EPE ( Greece), TransMIT Gesellschaft fuer Technologietransfer mbH (Germany), RHP TECHNOLOGY GMBH (Austria), Astos Solutions GmbH (Germany).

 

 

 

Investigating advanced partitioning and transmutation for nuclear fuel

 

Climate change is one of the main issues facing humanity. Due to its low CO2 emission, nuclear power is part of a sustainable energy mix. However, safety and waste issues cannot be taken lightly. For the latter the way forward is to recycle spent fuel with the goal to close the fuel cycle. This eases ultimate radioactive waste management, increases proliferation resistance and drastically improves economy and sustainability by better use of fuel resources.

The SNETP deployment plan describes the technical needs of fuel recycling including partitioning of spent fuel, fabrication and characterisation of minor actinide bearing fuel and the development of transmutation systems.

 

Objectives

PATRICIA follows that plan and answers the 2018-2019 EURATOM call: Research and Innovation for Partitioning and/or Transmutation. It focusses on research on advanced partitioning to efficiently separate Am from spent fuel, on experimental and fuel performance code development work studying the behaviour of Am bearing fuel under irradiation and on the safety related research supporting the licensing process of MYRRHA in its role in the development trajectory for a dedicated accelerator driven transmuter. It may be noted that for first time, the communities working of partitioning, transmutation and the development of MYRRHA are joint in one project.

Besides the technical work described above, dedicated work packages deals with education focussing on pre-and post-graduate students, and with dissemination where besides the specific stakeholders also high school pupils and the general public is targeted. A further task on knowledge management includes the both foreground data as well as metadata to so ensure proper QA for V&V is possible.

The von Karman Institute (VKI) is involved in three distinct tasks: The first task concerns the improvement of thermal turbulence models developed through preceding projects (THINS, SESAME, MYRTE): their further validation and extension to industrial scales developing corresponding wall functions. During the second task, these models will be used to simulate transient scenarios reproduced with the E-SCAPE facility allowing to assess the accuracy of the developed modelling strategy of nuclear installations in a real-case setup, the reduced scale mock-up of the MYRRHA reactor pool. The third task is devoted to knowledge management, education and training, ensuring that results of the project are properly disseminated at different levels to reach the best possible audience.

This project has received funding from the European Union’s H2020 program under Grant Agreement no.945077.

 

Partners

 

The project coordinated by the SCK CEN is performed using a combination of experiments, theoretical studies and numerical simulations for which the expertise of 26 research centres and universities is valorized.

 

Some Figures

Program:H2020-Euratom-1

Start Date: 1st September 2020

End Date:31 August 2024

Budget: € 8 924 940,63

 

 

 

RRTB Recover and recturn to base for small launchers

With the rise of the small satellite industry launch vehicles need new solutions to offer a tailored and cost-effective access to space. The space industry took a big leap forward when SpaceX started recovering the first stage of its rockets, thus decreasing launch prices drastically. Currently, reusability is one of the trending topics in the launcher industry.

The Recovery and Return-to-Base (RRTB) project received more than €3M from the European Commission’s H2020 program to investigate the recovery of the “MESO” micro launcher. Based on the Barcelona start-up Pangea Aerospace’s initial research the project seeks to validate and further develop this new technology. The RRTB consortium, coordinated by Pangea Aerospace, is composed by 8 experienced partners in the aerospace sector from 6 different European countries. 

The Kick-Off meeting of RRTB project took place on February 7th 2020 hosted by Pangea Aerospace in Barcelona.

The major objective of the project is to validate key technologies for safe and cost-effective recovery and reuse of the first stage of a small launch vehicle. At this regard Rasmus Bergström, technical coordinator of the project, stated: “this landing system uses already existing and proven technology from the Urban Air Mobility and drone sectors, thus reducing the development and production costs” and Xavier Llairó from Pangea Aerospace affirms: “To our view, high rate and high component reusability is essential to decrease launch costs in the micro-launcher industry.

The project will:
- Validate an innovative landing system, incorporating electric ducted fans. This European recovery system would allow a soft and precise landing without using the main engine, enabling high component reusability.
- Investigate the atmospheric re-entry of the first stage of the MESO micro launcher.
- Design of durable and cost-effective solutions for reusable structural design and cryogenic tanks.

The technology of Electric Ducted Fans has been largely investigated by other European companies and research centres in the context of Drone and unmanned aerial vehicles (UAVs) development, mainly for VTOL (Vertical Take-off and Landing) aircrafts. However, it was never transferred to a space sector. The experts selecting this project for the European Commission agreed on its technical impact and excellence.

Davide Bonetti, from Deimos Space stated: “One of the major challenges of this project will be to verify the feasibility of the return of the first stage of the rocket. Several missions and configurations will be studied in order to choose the most promising one”

The RRTB consortium combines the industrial expertise of Thales Alenia Space, Deimos Space, Heron Engineering, TOSEDA and Pangea Aerospace with the research experience and excellence of the von Karman Institute for Fluid Dynamics (VKI), RWTH Aachen and Technische Universität München in order to create a disruptive European recovery technology to reduce the cost of access-to-space.

The von Karman Institute for Fluid Dynamics will investigate the dynamic and static stability of the first stage during its atmospheric reentry in order to better predict its trajectory.

More information about the project can be found at www.rrtb.eu


This project has received funding from the European Union’s Horizon 2020 Research and Innovation program under Grant Agreement no. 870340.

CONSORTIUM PARTNERS

Pangea Aerospace
Pangea Aerospace is the coordinator of the project. The company is devising the next generation of rocket launcher technology based on reusability and efficiency through a disruptive recovery system as well as an innovative 3D-printed aerospike engine. In the new space ecosystem, the number of satellites sent to space is growing continuously and there is not enough supply of launches to cover the new demand. Pangea will target this underserved demand, thinking ahead in the market cycle, focusing on advanced technologies to reduce costs.The company is supported by a top advisory board, including the ex-president of ESA (the European Space Agency), as well as the ex-president of the French Space Agency (CNES), among others. It has received support both from European and national institutions.
Heron Engineering
Heron Engineering is a Small Medium Enterprise based in Athens, Greece, which provides engineering services in the aerospace domain – from on-going development projects to R&D projects. The main activity of the company is the analysis of structures (stress analysis), using finite elements and analytical (“hand”) calculations, coupled with design competences. The core of the company consists of engineers with experience in European Aerospace Projects and with expertise in Structural Analysis. Heron Engineering, apart its industry contractual work, has been collaborating in R&D projects funded by EU as well as ESA.
Technische Universität München
The Technische Universität München (TUM) is one of Europe´s leading universities. It has roughly 540 professors, 10.100 academic and non-academic staff, and 41.500 students. It focuses on the engineering sciences, natural sciences, life sciences, medicine, and on economic sciences. After winning numerous awards, it has been selected as an “Excellence University” in 2006 and 2012 by the German Science Council (Wissenschaftsrat) and the German Research Foundation (DFG). In both national and international rankings, TUM is rated as one of Germany´s top universities and is dedicated to the ideal of a top-level research-oriented entrepreneurial university.
Institute of Flight Dynamics: With its main research areas flight controls, sensor data fusion & navigation, flight trajectory optimization, and flight guidance, the Institute of Flight System Dynamics of TUM (TUM-FSD) holds in-depth experience pertaining to flight mechanical design, to both flight performance specification and implementation and to the development of flight control algorithms. The Institute operates a fully instrumented research aircraft, a research flight simulator, a level 5+ flight simulator and multiple UAVs. In addition to its contribution to various national and international research projects (including participations in FP7, H2020, CleanSky and EDA research projects such as RECREATE, INCEPTION, PALAST or NICE, respectively), the institute also cooperates within industry funded projects and other contractual research. The Rheinisch-Westfälische Technische Hochschule Aachen (RWTH Aachen University) with its 260 institutes in nine faculties is the largest university for technical study courses in Germany with more than 45.000 students. During the last five years, the university was nominated by the German Federal Government twice in a row as excellent. It is a member of the national TU9-Aalliance (U9 German Institutes of Technology) which is an association of the nine most prestigious, oldest, and largest Technical Universities in Germany. The Institute of Structural Mechanics and Lightweight Design (SLA) belongs to the faculty of Mechanical Engineering, the biggest one within the RWTH Aachen University. The faculty contains more than 50 teaching and research facilities as well as currently 63 professorships subserving more than 12,000 students. The institute is focused on teaching and research in the cluster of Aero- and Spacecraft Technology, especially in the field of design and sizing of aerostructures.
Thales Alenia Space
Drawing on over 40 years of experience and a unique combination of skills, expertise and cultures, Thales Alenia Space delivers cost-effective solutions for telecommunications, navigation, earth observation, environmental management, exploration, science and orbital infrastructures. Governments and private industry alike count on Thales Alenia Space to design satellite-based systems that provide anytime, anywhere connections and positioning, monitor our planet, enhance management of its resources, and explore our Solar System and beyond. Thales Alenia Space sees space as a new horizon, helping to build a better, more sustainable life on Earth. A joint venture between Thales (67%) and Leonardo (33%), Thales Alenia Space also teams up with Telespazio to form the parent companies’ Space Alliance, which offers a complete range of services. The Company is a major contributor to the International Space Station (ISS), responsible for over half of its pressurized volume, and played a major role on the ATV (Automated Transfer Vehicle) cargo vessels for ESA and on NASA's Cygnus program, which brings supplies to the ISS. Thales Alenia Space has leveraged its unrivalled expertise in orbital infrastructures and space transport, including the IXV, a huge success that paves the way to future European re-entry missions, and the pressurized compartment on SOAR (Sub-Orbital Aircraft Reusable), which will carry both scientific experiments and astronauts. Thales Alenia Space will also be a leading contributor to the Orion Multi-Purpose Crew Vehicle (MPCV) being developed by NASA.
von Karman Institute for Fluid Dynamics
The von Karman Institute for Fluid Dynamics (VKI) is an international educational and research institute devoted to the field of Fluid Dynamics. It was founded in 1956 by a number of NATO countries and the US and Canada. The Aeronautics and Aerospace Department has been working on many programs devoted to re-entry vehicles and general aerothermodynamics. VKI has a broad experience in numerical, theoretical and experimental investigation of hypersonic flow field phenomena. The H-3 (Mach 6), Longshot and Plasmatron (high enthalpy) facilities are the main experimental tools utilized at the von Karman Institute to study the aerothermodynamics of space vehicles. The von Karman Institute has been involved heavily in international programs of ESA such as Hermes, MSRO, EXPERT and IXV. Thanks to its unique facilities and its expertise, VKI has been recognized as reference laboratory of ESA.
TOSEDA s.r.o.
TOSEDA s.r.o. is an SME from Czech Republic providing contract research and development, small scale production, consultation services and training courses for students in the field of polymer chemistry and nanotechnologies. Main areas of TOSEDA’s activity include custom design and commercialization of novel polymeric and nanocomposite materials for hi-tech applications targeted especially for space applications.
• Development of hi-tech polymeric materials (composites, adhesives, elastomers, coatings, foams) modified by tailored nanostructures (organic, inorganic, hybrid) targeted for space, aerospace, military, construction, electronic and medicine industries.
• Small scale production of specialties such as masterbatches (dispersions of nanostructures in selected environment), pre-pregs etc.
The R&D team of TOSEDA has very positive experience working on ESA projects in a cooperation with EU key space industrial companies such as Airbus Defence & Space, EADS CASA Espacio, MT Aerospace and Thales Alenia Space. Further, TOSEDA closely collaborates on domestic and international scene with number of universities, research organizations and recognized chemical companies.  
TOSEDA s.r.o.
DEIMOS Space is the technology company within the ELECNOR Group specialised in the design, engineering and development of solutions and systems integration in the aerospace, satellite systems, remote sensing, information systems and telecommunications network sectors. In the space sector its expertise encompasses Mission and Flight Engineering, Space Situational Awareness, Ground Segment Systems, Flight Software Systems and Global Navigation Satellite Systems. DEIMOS Space will be leading the mission design and development activities including: trajectory design, orbit and launch site selection, risk and safety assessment, feasibility assessment, requirement definition and will be performing GNC and Flying qualities tasks towards a safe and reliable way to control the vehicle during the re-entry and landing phase of the mission. DEIMOS Space will also investigate the passive atmospheric reentry of the first stage together with Pangea Aerospace and Von Karman Institute.