Carmine Di Lauro

Dr. Carmine Di Lauro

orcid

Research Focus & Metrics

Academic Career Length

4Years (2023-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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13 April 2023 in Acta Astronautica
Verified
Journal Article
Open access
GSGheorghe Sirbu
Gheorghe Sirbu
Mauro LeonardiMauro Leonardi
Mauro Leonardi
CSCosimo Stallo
Cosimo Stallo
CLCarmine Di Lauro
Carmine Di Lauro
MCMattia Carosi
Mattia Carosi

29 October 2023 in Engineering Proceedings
Verified
Conference Paper
Open access
PDF file
CSCosimo Stallo
Cosimo Stallo
CLCarmine Di Lauro
Carmine Di Lauro
MCMattia Carosi
Mattia Carosi
LLLaura De Leo
Laura De Leo
MCMartina Cappa
Martina Cappa
Javier Ventura-TravesetJavier Ventura-Traveset
Javier Ventura-Traveset
In recent years, the Moon has gained renewed interest in terms of human exploration for scientific purposes. In this context, Thales Alenia Space is leading a consortium to define the main concepts for a Lunar Radio Navigation System (LRNS) in terms of Orbit Determination and Time Synchronization (ODTS) as part of an ESA Technology Development Element (TDE) programme. This work focuses on the latest performance results achieved through a dedicated simulator in terms of Signal In Space Error (SISE).

12 June 2025 in Sensors
Verified
Journal Article
Open access
PDF file
Mauro LeonardiMauro Leonardi
Mauro Leonardi
GSGheorghe Sirbu
Gheorghe Sirbu
MCMattia Carosi
Mattia Carosi
CSCosimo Stallo
Cosimo Stallo
CLCarmine Di Lauro
Carmine Di Lauro
Today, Moon exploration is driven by the desire to expand the human presence beyond Earth and to use its resources. This requires the development of reliable navigation systems that can provide positioning information accurately and continuously on the lunar surface and orbits. Initiatives such as Moonlight (by ESA) and the Cislunar Autonomous Positioning System project (by NASA) are underway to address this challenge. The aim is to use ranging signals transmitted by satellites, similar to Earth’s GNSS, for lunar user positioning. This paper proposes a solution that involves local sensors deployed on the Moon surface to enhance the performance of the satellite system. These sensors can serve as differential reference stations, correcting satellite pseudorange measurements obtained by lunar surface receivers. The local sensor can also be used as a pseudolite, transmitting satellite-like signals to improve system availability and accuracy in obstructed areas. Additionally, the local sensor can act as an independent beacon that provides range and angle measurements. Higher navigation performance can be achieved by increasing the complexity of the system, depending on the implemented solution. This paper proposes and shows the concept, the intial design, and a preliminary definition of the protocol for the third solution. The three different solutions are compared in terms of position accuracy by exploiting the Cramér–Rao Lower-Bound formulation and Monte Carlo simulations. Finally, possible implementations for future use on the Moon are discussed.