NLAP aims to address the following technology topics:
- RF antenna techniques
- RF receiver technologies (incl. ADC, FPGA, DSP developments)
- Digital signal processing algorithm development, including techniques for transient detection, direction of arrival techniques, and low-power processing
- RFI mitigation techniques & RFI determination for space applications (e.g. for lunar locations and SE L2 locations)
- Database techniques
- Distributed sensor networks techniques (interferometry)
- Space "exploration" of LF radio astronomy: distributed observing systems in space or on the moon
- Data communication techniques (intra satellite, high-speed inter-satellite links, High-speed long-range downlink
- Imaging and calibration techniques
- Clock synchronization and ranging algorithms
- High-accuracy clocks/timing
- Antenna deployment mechanisms
- Propulsion systems
- Reaction control systems
- Solar arrays with integrated phased array transceivers
- On-Board Computer with swarm control algorithms
- Navigation systems (either pulsar based, or sun/star-sensor based, perhaps using optical navigation techniques)
- Attitude determination systems (star trackers, fine sun-sensors)
- ...
NLAP aims to address the following science topics:
- Planetary science
- Solar physics and space weather
- Radio transients: Black Hole and Neutron Star systems, Pulsars, etc.
- Extra-galactic surveys
- Radio galaxies and AGNs
- LF radio maps of the sky
- Cosmic Rays and High-Energy Neutrinos
- Lunar science (ionosphere characterization, dust creation and transportation, Cosmic Rays and High Energy Neutrinos, etc.)
- Cosmological Dark Ages, Cosmic Dawn, and Epoch of Re-ionization studies
- ...
These lists are not exhaustive.