H2020Individual fellowship2015–2017

FLOWLASER · Manipulation of Flow Characteristics Using Laser Energy Deposition

Horizon 2020 — Marie Skłodowska-Curie Actions

Duration
2015-08-01 → 2017-07-31
EU contribution
€195,455
Participants
1
Scheme
MSCA-IF-EF-ST

Lines connect the coordinator with its partners.

Results in brief

Manipulation of Flow Characteristics Using Laser Energy Deposition

The idea of travelling safely from London to New York under three hours or even ‘access to space’ may sound appealing to many people, whether they are travelling for business or tourism. The high-speed civil transports will be able to achieve such flights; however, travelling at high speeds entails overcoming adverse effects, such as regions of high heat transfer and surface pressures, unsteady shock waves, together with the requirement of drag reduction. One method of flow and flight control is laser-based energy addition. The project aims to reduce drag and weight of high-speed vehicles. As a result of the reduced fuel consumption, the vehicles can be more environmental friendly. The overall objectives are: 1) Make significant advances and novel contributions in the state of the art by providing new physical insight of the induced interactions, to rectify their adverse effects by employing laser-based deposition systems; 2) Gain the experience, knowledge, and credibility to establish the Fellow as a world class engineer and researcher. The proposed study utilised laser-based deposition systems for the development of: a) Mitigation schemes for the avoidance or modification of localised regions of high heat transfer and surface pressure of high-speed vehicles; b) Methods for controlling local flow field characteristics and the location of shocks e.g., in engine inlets, and wing/body surface. This fellowship has provided Dr Ukai with support and training in all scientific and engineering aspects concerning the development, realization, characterization, modelling and simulation of laser-based energy deposition systems for flow and flight control.

Data: CORDIS, © European Union

Project objective

Travelling at high speeds entails overcoming adverse effects, such as regions of high heat transfer and surface pressures, unsteady shock waves, fluid-structure interactions, together with the requirement of drag reduction. One method of flow and flight control is energy addition. It is the objective of the proposed study to utilise this technique for the development of:1) mitigation schemes for the avoidance or modification of localised regions of high heat transfer and surface pressure of high-speed vehicles.2) methods for controlling local flowfield characteristics and the location of shocks e.g., in engine inlets, and wing-fuselage junctions.The research program combines both branches of research, namely, experimental and numerical. It aims to advance the frontiers of supersonic and hypersonic aerothermodynamics and propulsion and it will firmly establish a UK/European lead in research on laser energy systems for flight and flow control of high-speed vehicles. This programme will be supported by the excellent research environment provided by the host, Prof Kontis, University of Glasgow UK, with state-of-the-art facilities for research development, testing and training. This programme also will benefit from the strong links between the host group and leading UK and international research groups.

Original text from CORDIS.

Participants

Links

Data: CORDIS, © European Union