(UTC+01:00) Amsterdam, Berlin, Bern, Rome, Stockholm, Vienna
Papers and presentations will cover different technical and technological elements related to the implementation of future flexible telecom payload/systems including:
THEME A: System level requirements for flexible telecom payloads and their applicationS
In-orbit reconfigurable satellites, software defined satellites, repurposable satellites Ultra-High Throughput Satellites (UHTS) Mega-constellations, small and micro communication satellites, cubesats, nanosats Security and secure connectivity New space products and solutions Flexibility for interference management
THEME B: Flexible telecom payload and system architectures
Technologies enabling flexible coverage and capacity Multi-orbit and multi-frequency enabling payload architectures and technologies Multi-application/multi-domain payload architectures VLEO/LEO payload architectures for low-latency/critical communications Payload resource management and dynamic resource allocation techniques Payload flexibility for dual-use and hosted payloads applications Payload calibration
THEME C: Payload flexibility for satellite networks, servers, and services
Cloud computing and edge processing on satellite Servers and data centres in space Satellite as a Service (SaaS) payload architectures Autonomous/self-organising satellite networks Software Defined Networking (SDN) and Network Functions Virtualisation (NFV) enabling architecture Optical and RF Inter Satellite Links
THEME D: Payload flexibility and Reconfigurability in 5G/B5G/6G Non-Terrestrial Networks (NTNs)
Repurposable payloads for Joint Communications & Sensing (JCAS) Software Defined Payloads for 5G/6G Non-Terrestrial Networks (NTNs) Regenerative payloads for Direct-To-HandHeld (DTHH) communications LEO-based flexible payloads within constellations for Internet connectivity
THEME E: Reconfigurable antennas and beamforming
Active antenna arrays and related technologies (including deployability in space) for flexible coverage and capacity allocation Beamforming networks and algorithms (digital, analog, hybrid, quasi-optical), techniques for highly integrated Beam Forming Networks MIMO and Massive-MIMO for throughput increase and interference mitigation
THEME F: On-board signal processing for digitally configurable payloads
Software Defined Radio (SDR) payloads and agile digitally configurable transceiver/front-end technologies Custom telecom processor ICs, ASICs, FPGAs, multi-core processors, RF SoC, GPUs, DSPs, Data Converters for software defined operations Use of COTS Signal processing techniques for payload flexibility for transparent and regenerative processing, including modems and router functions Techniques based on Artificial Intelligence/Machine Learning (AI/ML)
THEME G: RF and photonic repeater hardware enabling telecom payload flexibility and reconfigurability
Payload subsystem enabling flexibility Flexible and reconfigurable frequency generation and conversion Modular and flexible radiating front-end Compact integrated RF front-end receivers for future telecom payloads Payload input multi-band / multi-polarisation subsystems Payload output multi-band / multi-polarisation subsystems Payload microwave photonic technologies
THEME H: Flexible telecom payload/system analysis, simulation and optimisation tools
THEME I: Manufacturing and test approaches for flexible telecom satellites and payload equipment
Flexible / generic payloads from an industrial perspective Assembly, Integration and Test (AIT) approaches for flexible and modular payloads Smart manufacturing / high volume manufacturing Co-bot/robot assisted manufacturing lines High-speed Printed Circuit Board (PCB) design and test techniques Design and manufacturing of high-power dissipation handling technology, embedded thermal management Use of new advanced materials or manufacturing techniques Use of digital twins to reduce development and test time
ESA Conference Bureau
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