Agency: European Commission | Branch: FP7 | Program: CP | Phase: SPA-2007-2.2-02 | Award Amount: 4.87M | Year: 2008
The objective of the research program is to design, optimize and develop a space plasma thruster based on helicon-radio-frequency technology and its application to a nano-satellite for attitude and position control. Moreover a detailed feasibility study will be also conducted to evaluate the possibility of using the plasma thruster to heat and decompose a secondary propellant. The feasibility study will asses the possibility of building up a combined-two-mode-thruster able to operate in the low-thrust high-efficiency plasma-mode and high-thrust low-efficiency secondary-propellant-plasma-enhanced mode. Only the plasma thruster will be developed and fully tested during this study. The main characteristics of the thruster are: Power 50 W Weight within 1.5 kg Thrust >1.5 mN Specific Impulse (Isp) >1200 s The program will develop thought the following steps: a) Deep numerical-theoretical investigation through dedicated plasma-simulation tools. b) Extensive experimental campaign to validate codes, to investigate the physics phenomena involved and to proof thruster performance. c) The development of a thruster-prototype to be mounted on board of a mini-satellite to demonstrate technology feasibility, d)The study of all the critical issues related to the application to a mini-satellite e) the design and manufacturing of the mini-satellite mock up including all critical components f) analysis of scaling law to lower and higher power. As a final results of the project, a detailed analysis will be conducted in order to evaluate the possible application of the thruster in space missions requiring low thrust accurate attitude and position control.
Agency: European Commission | Branch: FP7 | Program: CSA-SA | Phase: AAT.2008.7.0.6. | Award Amount: 210.16K | Year: 2009
Ukraine has a proud heritage in aeronautics dating from the Soviet era. It is one of the few countries in the world to have research, engineering and production capabilities across a wide range of aeronautics technologies. Despite these strengths, the participation of Ukrainian aeronautics actors in the ECs research framework programmes is very low (e.g. only 4 contracts were won under FP6-AEROSPACE). Consequently, the main aim of AERO-UKRAINE is to facilitate research co-operation between aeronautics actors from the EU and Ukraine. The project will achieve this via a range of activities: 1. Assessing and publicising the aeronautics collaboration potential between the EU and Ukraine. This involves mapping the Ukrainian aeronautics actors; reporting on opportunities for Ukrainian aeronautics actors in the EU; and production of a White Paper on aeronautics R&D in the Ukraine; 2. Raising awareness and understanding of EU aeronautics collaborative research. On the one side, this involves organising FP7 aeronautics events in Ukraine that combine awareness-raising, training and networking with EU aeronautics actors. On the other side, it involves Ukrainian aeronautics actors presenting their aeronautics research at aeronautics events in the EU; 3. Supporting participation in FP7 aeronautics research. This involves establishing an FP7 Aeronautics NCP in Ukraine and supporting Ukrainian aeronautics organisations to join consortia preparing FP7 research proposals. AERO-UKRAINEs measurable results include: a. White Paper on aeronautics R&D in the Ukraine; b. Website and publicly available information about 50\ aeronautics actors in Ukraine; c. Organisation of 2 FP7 aeronautics events in Ukraine; d. Participation in 3 aeronautics events in the EU; e. Establishment of an FP7 Aeronautics NCP in Ukraine; f. Support to 6\ Ukrainian aeronautics actors to join consortia preparing FP7 research proposals; g. Organisation of final dissemination conference in Kiev.
Agency: European Commission | Branch: FP7 | Program: CP-FP | Phase: AAT.2013.4-4. | Award Amount: 5.59M | Year: 2013
CORSAIR project is a wide investigation concerning the capabilities of Cold Spray Technology for maintenance and repair of aeronautic frames and components. Today, deep and systematic investigation in Cold Spray is required to better understand the capabilities and fully validate the technology in aeronautics. In this scenario, the activities planned in CORSAIR project are (1) Explore the real capabilities of Cold Spray in several practical examples of aeronautic repair applications; real components to be repaired will be selected by aeronautic companies and cold spray repair protocols defined during the project. A condensed list of the parts and repairs considered during the project includes the Repairs of New Parts: castings and machined parts exhibiting different kind of defects; and the Restoration of Serviced Parts and components. The Base and deposition Materials are Light Alloys such as Al, Ti and Mg alloys. Homogeneous Repair (repair where the deposited material is the same of the base material) and Heterogeneous Repair (repair where the deposited material is different with respect to the base material) will be considered. (2) deep investigate the coating and repair characteristics (mechanical, microstructural, thermal and chemical properties) in order to finely tune and define where Cold Spray could be further applied for maintenance and repair in aeronautics. (3) deep investigate the effect and the characteristics of feedstock materials required for deposition (4) to give the required reliability to the coating deposition and repair processes to validate the technology for aeronautic industry. (5) To surpass the actual technological limitations of line-in-sight Cold Spray deposition process developing new nozzles for out-of-view surfaces. (6) To develop a New Industrial Portable Cold Spray Unit to extend the capabilities of in situ maintenance and repair applications. CORSARI has been previously submitted to AAT-2012-RTD-1 obtaining a score of 13/15.
Uss M.L.,University of Rennes 1 |
Uss M.L.,National Aerospace University - Kharkiv Aviation Institute |
Vozel B.,University of Rennes 1 |
Lukin V.V.,National Aerospace University - Kharkiv Aviation Institute |
Chehdi K.,University of Rennes 1
IEEE Journal on Selected Topics in Signal Processing | Year: 2011
A maximum-likelihood method for estimating hyperspectral sensors random noise components, both dependent and independent from the signal, is proposed. A hyperspectral image is locally jointly processed in the spatial and spectral dimensions within a multicomponent scanning window (MSW), as small as 7 × 7 × 7 spatial-spectral pixels. Each MSW is regarded as an additive mixture of spectrally correlated fractal Brownian motion (fBm)-samples and random noise. The main advantage of the proposed method is its ability to accurately estimate band noise variances locally by using spatial and spectral texture correlations from a single textural MSW. For each spectral band, both additive and signal-dependent band noise components are estimated by linear fit of local noise variances obtained from many MSWs distributed over the whole band intensity range. CRLB-based analysis of the estimator performance shows that a good compromise is to jointly process seven adjacent spectral bands. The proposed method performance is assessed first on synthetic fBm-data and on real images with synthesized noise. Finally, four different AVIRIS datasets from 1997 flying season are considered. Good coincidence between additive and signal-dependent AVIRIS random noise components estimates obtained by our method and the estimates retrieved from AVIRIS calibration data is demonstrated. These experiments suggest that it is worth taking into account noise signal-dependency hypothesis for processing AVIRIS data. © 2011 IEEE.
Agency: European Commission | Branch: FP7 | Program: CP-FP | Phase: AAT.2010.1.1-2.;AAT.2010.4.1-2. | Award Amount: 4.34M | Year: 2011
Aeronautics is a key asset for the future of Europe, but nowadays the industry has to face the challenge of More Affordable, Safer, Cleaner and Quieter while at the same time accounting for a demand that will triple over the next 20 years. WASIS project aims to rise to this challenge with the development of a composite fuselage structure based on the lattice stiffening concept, optimizing geometrical and mass properties of transition zones of fuselage structural joints. Project overall concept is focused on simultaneous meeting environmental demands and rising safety coupled with design and manufacturing cost-efficiency improvement. The lattice approach allows composites to obtain more efficient mechanical behaviour, reducing weight and optimizing structure performance, which will be proved by comparative simulations against other approaches. This will be combined with specially designed semi-loop and micro-pin joining elements to provide the ability of innovative non-regular lattice structure manufacturing, save aircraft weight, avoid fuselage section weakening due to cutting reinforcement fibres. Furthermore, the structure will also be developed to better withstand worst situation loadings, assessing safety through the large adoption of simulation and virtual testing from the very first design stages to analyze explosions and material damping. Developed innovative fuselage section design will be merged with high-productive filament winding technology to reduce manufacturing costs and time, and samples will be manufactured in order to prove how the different concepts fit together. Complete testing of the samples will be applied to prove the wafer approach. As a result of this project integrated approach sufficient fuselage weight savings, manufacturing cost/time efficiency and safety increasing are to be achieved.
Agency: European Commission | Branch: H2020 | Program: CSA | Phase: MG-1.5-2016-2017 | Award Amount: 1.00M | Year: 2016
The overall aim of the AERO-UA project is to stimulate aviation research collaboration between the EU and Ukraine through strategic and targeted support. AERO-UA is focused solely on Ukraine, because the country has a huge aerospace potential but a low level of aviation research collaboration with the EU. Ukraines aerospace sector spans the full spectrum of systems and components development and production with OEMs, Tier 1 and 2 suppliers, aeroengine manufacturers, control systems manufacturers, R&D institutions, aeronautic universities, and SMEs. This is also reflected in the sectors important contributor to the countrys economy (e.g. aircraft production of 1,9 billion in 2011). Ukrainian aerospace organisations possess unique know-how that can help Europe address the challenges identified in the ACARE SRIA / Flightpath 2050 Report. Furthermore, following the signing of the Agreement for the Association of Ukraine to Horizon 2020 in March 2015, Ukrainian organisations are eligible to participate in Clean Sky 2 and H2020 Transport on the same funding terms as those from EU member states. Equally, genuine commercial opportunities exist for European aviation organisations to help modernise Ukraines aerospace sector. The AERO-UA project will achieve its overall aim via four high-level objectives: 1. Identifying the barriers to increased EU-UA aviation research collaboration; 2. Providing strategic support to EU-UA aviation research collaboration; 3. Supporting EU-UA aviation research knowledge transfer pilot projects; and 4. Organising awareness-raising and networking between EU-UA stakeholders. The AERO-UA consortium is comprised of key EU and UA aviation organisations that will implement WPs closely mapped to the high-level objectives. The consortium will be supported by an Advisory Board involving Airbus, DLR, Min. Education and Science of Ukraine, Ukrainian State Air Traffic Services Enterprise and retired Director of EADS Jean-Pierre Barthlemy.
Agency: European Commission | Branch: H2020 | Program: CSA | Phase: MG-1.5-2016-2017 | Award Amount: 2.00M | Year: 2016
Aviation is a vital industrial sector of Europes society and economy. For several historical reasons the economic activities in this field are unevenly distributed across Europe. Statistics show that also the R&D effort, which always comes along with the aviation, mirrors this allocation. On one hand, there are countries and regions featuring low involvement in aviation research and also low participation in the EU Framework Programmes; on the other some regions are heavily involved in aviation R&D and are origin of wealth and prosperity. RADIAN is a multi-step project which intends to overcome this misbalance by identification of barriers for international collaboration in aviation research at EU level and by subsequent development and verification of solutions and measures on level of the European regions. The initial step is to assess the impact of regional, national and international environment on aviation actors. An impact is considered to become a barrier in case it has a detrimental nature or significantly differs from the pan-European average. By systematically comparing single impact scenarios for various actors located in different European regions, barriers for cooperation will be identified. Having this verified knowledge, 12 target regions are identified to derive, verify and execute tailored activity plans aiming at the enhancement of the actors ability to cooperate by reducing the disadvantageous impact or by the advancement of actors own assets, knowledge and abilities. Another field of work of RADIAN is a self-sustaining collaboration platform which acts as a host for transnational exchange. The platform aims at becoming a live portal, for providing personalised information related to the users interests such as open calls, available funding schemes, recent advancements etc.
Agency: European Commission | Branch: FP7 | Program: CSA-SA | Phase: INCO.2011-6.1 | Award Amount: 551.26K | Year: 2011
The overall aim of the KhAI-ERA project is to integrate the National Aerospace University (KhAI) into ERA, by reinforcing its cooperation capacities and twinning with European research and innovation organisations in its 3 strongest aerospace and IT research topics: A) Composite Materials, B) Advanced Manufacturing for Aircraft Assembly, and C) Dependable Embedded Systems. These are topics highly relevant to the FP7 Transport, Space, ICT and Research for SMEs work programmes. KhAI is the only university in Ukraine providing the full cycle of higher education in aerospace science. It has over 1146 researchers, 700 teachers and 12,000 students. The university has strong relationship with aerospace and machine-building industry in Kharkiv region and key Ukrainian enterprises. KhAI participates in many national and international R&D projects with public and private partners (e.g. STCU, Tempus, Boeing, Sukhoy, etc). Also, KhAI is scheduled to become the FP7 Aeronautics NCP for Ukraine. The KhAI-ERA project will build upon KhAIs existing strengths as a high-quality research institution via twinning and capacity building activities with the following 4 excellent European research and innovation organisations: Institute of Aerospace Engineering, Brno University of Technology, Fraunhofer Institute for Factory Operation and Automation, Centre for Integrated Electronic Systems and Biomedical Engineering, Tallinn University of Technology, and Intelligentsia Consultants. The capacity building activities will involve knowledge exchange, setting up joint experiments, and training development for KhAI researchers focused on composite materials, advanced manufacturing for aircraft assembly,dependable embedded systems, and the FP7 programme. Also, it will involve dissemination and strategy development to support the KhAI organisation. KhAI-ERA will be overseen by a steering committee involving the consortium partners plus members of the Ukrainian government, Airbus and ASD.
Totsky A.V.,National Aerospace University - Kharkiv Aviation Institute
Telecommunications and Radio Engineering (English translation of Elektrosvyaz and Radiotekhnika) | Year: 2013
A problem of unknown signal shape estimation in noise is considered. Combined bispectrum-filtering technique is proposed for signal waveform restoration by using higher-order spectrum properties in combination with linear or nonlinear digital filtering. Numerical simulation results demonstrating reconstruction of unknown signal waveform from an observed set of noisy realizations are represented. It is shown that combined signal processing strategy contained bispectrum-based signal shape reconstruction and nonlinear/linear filtering procedures provides better noise suppression in comparison to common types of bispectral, nonlinear and linear filters. © 2013 by Begell House, Inc.
Sklyar V.,National Aerospace University - Kharkiv Aviation Institute
CEUR Workshop Proceedings | Year: 2016
Instrumentation and Control systems play important role in operation and maintenance of Nuclear Power Plants. A challenge in such systems implementation is certification and licensing against national safety regulatory requirements. A considered case describes certification of Instrumentation and Control platform of Ukrainian company Radiy against the United States nuclear safety requirements. General framework is described. Research activities of the project are presented. © 2016 by the paper authors.