Résumé
Development of pulsed lasers for space-based science missions entail many additional challenges compared to terrestrial experiments. For systems requiring short pulses ≪1 ns with energies >100 mJ and fast repetition rates >10 kHz there are currently few if no laser architectures capable of operating with high electrical efficiency >20% and have good system stability. The emergence of a mulit-channel fiber-based Coherent-Amplifying-Network or CAN laser potentially enables such capability for space based missions. Here in this article we present an analysis of two such missions scaling up in pulse energy from ≈100 mJ for a supercontinuum LIDAR application utilising atmospheric filamentation to the higher energy demands needed for space debris remediation requiring ≈10 J pulses. This scalability of the CAN laser provides pathways for development of the core science and technology where many new novel space applications can be made possible.
| langue originale | Anglais |
|---|---|
| Pages (de - à) | 2645-2655 |
| Nombre de pages | 11 |
| journal | European Physical Journal: Special Topics |
| Volume | 224 |
| Numéro de publication | 13 |
| Les DOIs | |
| état | Publié - 1 oct. 2015 |
| Modification externe | Oui |
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