Active Physics & Astronomy Chemistry

Hikaru

In plain English

AI plain-English summary

A photonic chip the size of a fingernail will replace bulky electronics in satellite communication systems, sending data via laser light instead of radio waves. The HIKARU project is building a complete optical transceiver subsystem—the part that transmits and receives signals—using a Photonic Integrated Circuit (PIC) as its core. Current satellite links are limited by the weight, power consumption, and bandwidth of radio-frequency hardware. Laser-based systems can carry far more data per second while using less electricity and weighing less, which matters enormously for satellites where every kilogram and watt is precious. The consortium includes a chip designer, a connector specialist, and RAL Space, the UK’s national space laboratory, which will test prototypes against the harsh conditions of launch and orbit. If successful, the project will establish a UK manufacturing supply chain for these components and feed into emerging international standards for photonic chips in space. The immediate impact is on satellite communications—faster internet from orbit, better Earth observation data downlinks—but the underlying photonic technology could eventually ripple into terrestrial fibre networks, data centres, and defence systems.

View original technical description
The HIKARU project will develop a Photonic Integrated Circuit (PIC) based satcom transceiver subsystem enabling high-speed operation for the satellite communication markets. Laser based systems, especially compact, energy-efficient PIC based system, have the potential to revolutionise this industry with higher-data rates, lower power use, lower weight and resilience to shock and vibration. The partners will create a supply chain with the AIO Core PIC Chips as the optical engine, the innovative Senko connection technology to connect the PCB to the Resolute Photonics designed subsystem and electronics. This project will iterate designs and develop several prototypes which will be tested in pre-compliance space qualification tests by RAL Space, the UK National laboratory for space missions and who will provide feedback and analysis for iterative prototyping. The project will develop these prototypes with a view to create a manufacturing supply chain between the commercial partners for post-project commercialisation. Exploitation and standardisation activities will form a part of the project in order to engage relevant stakeholders and the industry standards bodies for the future PIC standards currently being developed.

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Related Research

Grants with similar aims, by meaning.

Towards Demonstration of Photonic Payload For Telecom Satellites
Semiconductor Quantum Photonics
Space-grade Opto-electronic Interfaces for Photonic Digital and Analogue Very-high-throughput Satellite payloads
Photo-Digital Channelizer for Flexible Digital High Throughput Satellites
Integrated Photonics as a Service: Streamlining Photonic Component Development

Original classification

Collaborative R&D

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